YOKOGAWA DY025, DY015, DY100, DY040, DY150 User Manual

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Page 1

User’s Manual

Yokogawa Electric Corporation

IM 01F06A00-01E

Model DY Vortex Flowmeter

(Integral Type, Remote Type)

Model DYA Vortex Flow Converter

(Remote Type)

IM 01F06A00-01EN

13th Edition

Page 2

CONTENTS

IM 01F06A00-01E

CONTENTS

INTRODUCTION .............................................................................................................................................. iv

1. HANDLING PRECAUTIONS ................................................................................................................ 1-1

1.1 Model and Specifications........................................................................................................................... 1-1

1.2 Precautions Regarding Transportation and Storage Location ............................................................... 1-1

1.3 Precautions Regarding Installation Locations ........................................................................................ 1-1

2. INSTALLATION .................................................................................................................................... 2-1

2.1 Precautions Regarding Installation Locations ........................................................................................ 2-1

2.2 Piping ........................................................................................................................................................... 2-1

2.3 Precautions Regarding Installation .......................................................................................................... 2-4

2.4 Piping to Improve Durability ......................................................................................................................2-5

2.5 Cryogenic and High process Temperature Version Insulation ............................................................... 2-5

2.6 Installing the Vortex Flow-meter ................................................................................................................ 2-6

3. WIRING................................................................................................................................................. 3-1

3.1 Wiring Precautions .....................................................................................................................................3-1

3.2 Wiring for Output Condition ...................................................................................................................... 3-1

3.3 Connection ..................................................................................................................................................3-2

3.4 Wiring Cables and Wires ............................................................................................................................3-4

3.5 Connection of the Remote Type Signal Cable.......................................................................................... 3-4

3.6 Method of Finishing the Signal Cable End(DYC) ..................................................................................... 3-5

3.6.1 For Vortex Flowmeter (DY-N) ........................................................................................................................... 3-5

3.6.2 For Vortex Flow Converter (DYA) .................................................................................................................... 3-6

3.7 Wiring Cautions .......................................................................................................................................... 3-7

3.8 Grounding ................................................................................................................................................... 3-7

4. BASIC OPERATING PROCEDURES .................................................................................................. 4-1

4.1 Construction of the Display ....................................................................................................................... 4-1

4.2 Display Contents in Display Section ........................................................................................................ 4-2

4.3 Display Contents in Display Section ........................................................................................................ 4-3

4.3.1 Change the Display Mode from % Display to Engineering Unit ....................................................................... 4-4

4.3.2 Indicate the Total Rate in the Lower Display ..................................................................................................... 4-5

4.4 Setting Mode ............................................................................................................................................... 4-6

4.4.1 Structure of Setting Mode Display ..................................................................................................................... 4-6

4.4.2 Method of Parameter Setting .............................................................................................................................. 4-7

4.5 Operation for the BRAIN Terminal (BT200)............................................................................................... 4-9

4.5.1 Connection Method for the BT200 .................................................................................................................... 4-9

4.5.2 Displaying Flow Rate Data .............................................................................................................................. 4-10

4.5.3 Setting Parameters ............................................................................................................................................ 4-11

4.6 Operation via HART configuration tool .................................................................................................. 4-13

4.6.1 Matching of instrument (digitalYEWFLO) DD and HART Configuration Tool’s DD ................................... 4-13

4.6.2 Interconnection between digitalYEWFLO and HART Configuration Tool..................................................... 4-13

4.6.3 Basic Setup ....................................................................................................................................................... 4-14

4.6.4 Parameter configuration ................................................................................................................................... 4-14

4.6.5 Data Renewing and Upload/download function .............................................................................................. 4-14

4.6.6 Self-diagnostic .................................................................................................................................................. 4-14

4.6.7 Software Write Protect ..................................................................................................................................... 4-14

4.6.8 HART Specific Functions ................................................................................................................................ 4-14

4.6.9 Other operations for the HART Configuration Tool ........................................................................................ 4-15

4.6.10 Menu Tree ........................................................................................................................................................ 4-16

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CONTENTS

IM 01F06A00-01E

5. PARAMETER SETUP........................................................................................................................... 5-1

5.1 Parameter Setup ......................................................................................................................................... 5-1

5.2 Multi-Variable Type Parameter (Only for /MV) ........................................................................................... 5-1

5.3 Parameters List ...........................................................................................................................................5-1

5.4 Parameter Description ............................................................................................................................... 5-9

5.5 Error Code Lists ........................................................................................................................................ 5-17

6. OPERATION ......................................................................................................................................... 6-1

6.1 Adjustment ..................................................................................................................................................6-1

6.1.1 Zero Adjustment ................................................................................................................................................. 6-1

6.1.2 Span Adjustment ................................................................................................................................................ 6-1

6.1.3 Loop test ............................................................................................................................................................. 6-1

6.1.4 Totalizer Function Start and Totalized Value Reset ............................................................................................ 6-1

6.1.5 Unit of Pulse Output (Scaling) ........................................................................................................................... 6-2

6.1.6 Setting of Burnout Switch .................................................................................................................................. 6-2

6.1.7 Setting of Write Protect Switch .......................................................................................................................... 6-2

6.1.8 Power Failure ..................................................................................................................................................... 6-3

6.2 Adjustment for Manual Mode .................................................................................................................... 6-3

6.2.1 Low Cut Adjustment .......................................................................................................................................... 6-3

6.2.2 Tuning ................................................................................................................................................................ 6-3

6.3 Other Maintenance ..................................................................................................................................... 6-4

6.3.1 Cleaning Precautions .......................................................................................................................................... 6-4

7. MAINTENANCE ................................................................................................................................... 7-1

7.1 Changing the Terminal Box Orientation ................................................................................................... 7-2

7.2 Indicator Removal and Rotation ................................................................................................................ 7-3

7.3 Amplifier Unit Removal .............................................................................................................................. 7-3

7.4 Amplifier Unit Assembling ......................................................................................................................... 7-3

7.5 Vortex Shedder Removal............................................................................................................................ 7-4

7.6 Flow Calculation ......................................................................................................................................... 7-6

8. TROUBLESHOOTING .......................................................................................................................... 8-1

8.1 Flow .............................................................................................................................................................. 8-1

8.2 Flow (Only for /MV) ..................................................................................................................................... 8-4

9. GENERAL DESCRIPTION ................................................................................................................... 9-1

9.1 Outline ......................................................................................................................................................... 9-1

9.2 Standard Specifications .............................................................................................................................9-2

9.3 Model and Suffix Codes .............................................................................................................................9-5

9.4 Option Specifications ................................................................................................................................. 9-8

9.4.1 Option Specifications ......................................................................................................................................... 9-8

9.4.2 Option Multi-Variable (Build in Temperature Sensor) Type (/MV)(*1) .......................................................... 9-10

9.4.3 OPTION REDUCED BORE TYPE (/R1) (*1) ................................................................................................ 9-11

9.4.4 Option Specifications (For Explosion Protected Type) .................................................................................... 9-12

9.5 Sizing .........................................................................................................................................................9-15

9.6 External Dimensions ................................................................................................................................ 9-20

10. EXPLOSION PROTECTED TYPE INSTRUMENT ............................................................................. 10-1

10.1 CENELEC ATEX (KEMA) ..........................................................................................................................10-1

10.1.1 Technical Data.................................................................................................................................................. 10-1

10.1.2 Installation ........................................................................................................................................................ 10-2

10.1.3 Operation .......................................................................................................................................................... 10-2

10.1.4 Maintenance and Repair ................................................................................................................................... 10-2

10.1.5 Installation Diagram of Intrinsically safe (and Note) ...................................................................................... 10-3

10.1.6 Installation Diagram of Type of Protection “n” ............................................................................................... 10-3

10.1.7 Screw Marking ................................................................................................................................................. 10-3

10.1.8 Name Plate ....................................................................................................................................................... 10-4

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CONTENTS

IM 01F06A00-01E

iii

10.2 FM ............................................................................................................................................................... 10-5

10.2.1 Technical Data.................................................................................................................................................. 10-5

10.2.2 Wiring............................................................................................................................................................... 10-5

10.2.3 Operation .......................................................................................................................................................... 10-5

10.2.4 Maintenance and Repair ................................................................................................................................... 10-5

10.2.5 Installation Diagram ......................................................................................................................................... 10-6

10.3 SAA ............................................................................................................................................................ 10-7

10.3.1 Technical Data.................................................................................................................................................. 10-7

10.3.2 Installation ........................................................................................................................................................ 10-7

10.3.3 Operation .......................................................................................................................................................... 10-7

10.3.4 Maintenance and Repair ................................................................................................................................... 10-7

10.3.5 Installation Diagram ......................................................................................................................................... 10-8

10.3.6 Data Plate ......................................................................................................................................................... 10-8

10.4 CSA ............................................................................................................................................................ 10-9

10.4.1 Technical Data.................................................................................................................................................. 10-9

10.4.2 Wiring............................................................................................................................................................. 10-10

10.4.3 Operation ........................................................................................................................................................ 10-10

10.4.4 Maintenance and Repair ................................................................................................................................. 10-10

10.4.5 Installation Diagram Intrinsically Safe (and Note) ........................................................................................ 10-10

10.4.6 Dual Seal (Option: /CF11, /CS11) ................................................................................................................. 10-11

10.5 TIIS ........................................................................................................................................................... 10-12

11. PRESSURE EQUIPMENT DIRECTIVE ................................................................................................ 11-1

INSTALLATION AND OPERATING PRECAUTIONS FOR TIIS FLAMEPROOF EQUIPMENT ......... EX-B03E

REVISION RECORD

Page 5

IM 01F06A00-01E

INTRODUCTION

The DY series of vortex flowmeters have been fine-tuned to

your order specifications prior to shipment. Before use, read

this manual thoroughly and familiarize yourself fully with

the features, operations and handling of digitalYEWFLO to

have the instrument deliver its full capabilities and to ensure

its efficient and correct use.

■ Notices Regarding This Manual

• This manual should be passed to the end user.

• The contents of this manual are subject to change without

prior notice.

reproduced or transmitted in any form or by any means

without the written permission of Yokogawa Electric

Corporation (hereinafter simply referred to as Yokogawa).

• This manual neither does warrant the marketability of this

instrument nor it does warrant that the instrument will suit

a particular purpose of the user.

• Every effort has been made to ensure accuracy in the

contents of this manual. However, should any questions

arise or errors come to your attention, please contact your

nearest Yokogawa sales office that appears on the back of

this manual or the sales representative from which you

purchased the product.

•This manual is not intended for models with custom

specifications.

• Revisions may not always be made in this manual in

conjunction with changes in specifications, constructions

and/or components if such changes are not deemed to

interfere with the instrument’s functionality or perfor-

mance.

■ Notices Regarding Safety and Modification

• For the protection and safety of personnel, the instrument

and the system comprising the instrument, be sure to

follow the instructions on safety described in this manual

when handling the product. If you handle the instrument

in a manner contrary to these instructions, Yokogawa

does not guarantee safety.

• If this instrument is used in a manner not specified in this

manual, the protection provided by this instrument may

be impaired.

• As for explosionproof model, if you yourself repair or

modify the instrument and then fail to return it to its

original form, the explosion-protected construction of the

instrument will be impaired, creating a hazardous

condition. Be sure to consult Yokogawa for repairs and

modifications.

■ Safety and Modification Precautions

• The following general safety precautions must be

observed during all phases of operation, service, and

repair of this instrument. Failure to comply with these

precautions or with specific WARNINGS given elsewhere

in this manual violates safety standards of design,

manufacture, and intended use of the instrument.

Yokogawa assumes no liability for the customer's failure

to comply with these requirements. If this instrument is

used in a manner not specified in this manual, the

protection provided by this instrument may be impaired.

• The following safety symbol marks are used in this user's

manual and instrument.

WARNING

A WARNING sign denotes a hazard. It calls attention to procedure, practice, condition or the like, which, if not correctly performed or adhered to, could result in injury or death of personnel.

CAUTION

A CAUTION sign denotes a hazard. It calls attention to procedure, practice, condition or the like, which, if not correctly performed or adhered to, could result in damage to or destruction of part or all of the product.

IMPORTANT

An IMPORTANT sign denotes that attention is required to avoid damage to the instrument or system failure.

NOTE

A NOTE sign denotes information necessary for essential understanding of operation and features.

Functional grounding terminal

Direct current

Page 6

IM 01F06A00-01E

INTRODUCTION

Warranty

• The warranty of this instrument shall cover the period

noted on the quotation presented to the Purchaser at the

time of purchase. The Seller shall repair the instrument

free of charge when the failure occurred during the

warranty period.

• All inquiries on instrument failure should be directed to

the Seller’s sales representative from whom you purchased

the instrument or your nearest sales office of the Seller.

• Should the instrument fail, contact the Seller specifying

the model and instrument number of the product in

question. Be specific in describing details on the failure

and the process in which the failure occurred. It will be

helpful if schematic diagrams and/or records of data are

attached to the failed instrument.

• Whether or not the failed instrument should be repaired

free of charge shall be left solely to the discretion of the

Seller as a result of an inspection by the Seller.

■ The Purchaser shall not be entitled to receive repair services from the Seller free of charge, even during the warranty period, if the malfunction or damage is due to:

• improper and/or inadequate maintenance of the instrument

in question by the Purchaser.

• handling, use or storage of the instrument in question

beyond the design and/or specifications requirements.

• use of the instrument in question in a location not

conforming to the conditions specified in the Seller's

General Specification or Instruction Manual.

• retrofitting and/or repair by an other party than the Seller

or a party to whom the Seller has entrusted repair

services.

• improper relocation of the instrument in question after

delivery.

• reason of force measure such as fires, earthquakes, storms/

floods, thunder/lightning, or other reasons not attributable

to the instrument in question.

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IM 01F06A00-01E

INTRODUCTION

■ Using the Vortex Flowmeter Safely

WARNING

(1) Installation

• Installation of the vortex flowmeter must be performed by expert engineer or skilled personnel. No operator shall be permitted to perform procedures relating to installation.

• The vortex flowmeter is a heavy instrument. Be careful that no damage is caused to personnel through accidentally dropping it, or by exerting excessive force on the vortex flowmeter. When moving the vortex flowmeter, always use a trolley and have at least two people carry it.

• When the vortex flowmeter is processing hot fluids, the instrument itself may become extremely hot. Take sufficient care not to get burnt.

• Where the fluid being processed is a toxic substance, avoid contact with the fluid and avoid inhaling any residual gas, even after the instrument has been taken off the line for maintenance and so forth.

• All procedures relating to installation must comply with the electrical code of the country where it is used.

(2) Wiring

• The wiring of the vortex flowmeter must be performed by expert engineer or skilled personnel. No operator shall be permitted to perform procedures relating to wiring.

• When connecting the wiring, check that the supply voltage is within the range of the voltage specified for this instrument before connecting the power cable. In addition, check that no voltage is applied to the power cable before connecting the wiring.

• The functional grounding must be connected securely at the terminal with the mark to avoid danger to personnel.

(3) Operation

• Only expert engineer or skilled personnel are permitted to open the cover.

(4) Maintenance

• Maintenance on the vortex flowmeter should be performed by expert engineer or skilled personnel. No operator shall be permitted to perform any operations relating to maintenance.

• Always conform to maintenance procedures outlined in this manual. If necessary, contact Yokogawa.

• Care should be taken to prevent the build up of dirt, dust or other substances on the display panel glass or data plate. If these surfaces do get dirty, wipe them clean with a soft dry cloth.

(5) Explosion Protected Type Instrument

• For explosion proof type instrument, the description in Chapter 10 “EXPLOSION PROTECTED TYPE INSTRUMENT” is prior to the other description in this user's manual.

• Only trained persons use this instrument in the industrial location.

• The functional grounding must be connected to a suitable IS grounding system.

• Take care not to generate mechanical spark when access to the instrument and peripheral devices in hazardous locations.

(6) European Pressure Equipment Directive

(PED)

• When using the instrument as a PED-compliant product, be sure to read Chapter 11 before use.

• Do not open the cover in wet weather or high humidity. If the cover is opened, provided protection with the enclosure is not warrantable.

Page 8

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IM 01F06A00-01E

INTRODUCTION

■ ATEX Documentation

This procedure is only applicable to the countries in

European Union.

All instruction manuals for ATEX Ex related products are

available in English, German and French. Should you require

Ex related instructions in your local language, you are to

contact your nearest Yokogawa office or representative.

Alle brugervejledninger for produkter relateret til ATEX Ex

er tilgængelige på engelsk, tysk og fransk. Skulle De ønske

yderligere oplysninger om håndtering af Ex produkter på eget

sprog, kan De rette henvendelse herom til den nærmeste

Yokogawa afdeling eller forhandler.

Tutti i manuali operativi di prodotti ATEX contrassegnati con

Ex sono disponibili in inglese, tedesco e francese. Se si

desidera ricevere i manuali operativi di prodotti Ex in lingua

locale, mettersi in contatto con l’ufficio Yokogawa più vicino

o con un rappresentante.

Todos los manuales de instrucciones para los productos

antiexplosivos de ATEX están disponibles en inglés, alemán

y francés. Si desea solicitar las instrucciones de estos

artículos antiexplosivos en su idioma local, deberá ponerse en

contacto con la oficina o el representante de Yokogawa más

cercano.

Alle handleidingen voor producten die te maken hebben met

ATEX explosiebeveiliging (Ex) zijn verkrijgbaar in het

Engels, Duits en Frans. Neem, indien u aanwijzingen op het

gebied van explosiebeveiliging nodig hebt in uw eigen taal,

contact op met de dichtstbijzijnde vestiging van Yokogawa of

met een vertegenwoordiger.

Kaikkien ATEX Ex -tyyppisten tuotteiden käyttöhjeet ovat

saatavilla englannin-, saksan- ja ranskankielisinä. Mikäli

tarvitsette Ex -tyyppisten tuotteiden ohjeita omalla

paikallisella kielellännne, ottakaa yhteyttä lähimpään

Yokogawa-toimistoon tai -edustajaan.

Todos os manuais de instruções referentes aos produtos Ex

da ATEX estão disponíveis em Inglês, Alemão e Francês. Se

necessitar de instruções na sua língua relacionadas com

produtos Ex, deverá entrar em contacto com a delegação

mais próxima ou com um representante da Yokogawa.

Tous les manuels d’instruction des produits ATEX Ex sont

disponibles en langue anglaise, allemande et française. Si

vous nécessitez des instructions relatives aux produits Ex

dans votre langue, veuillez bien contacter votre représentant

Yokogawa le plus proche.

Alle Betriebsanleitungen für ATEX Ex bezogene Produkte

stehen in den Sprachen Englisch, Deutsch und Französisch

zur Verfügung. Sollten Sie die Betriebsanleitungen für Ex-

Produkte in Ihrer Landessprache benötigen, setzen Sie sich

bitte mit Ihrem örtlichen Yokogawa-Vertreter in Verbindung.

Alla instruktionsböcker för ATEX Ex (explosionssäkra)

produkter är tillgängliga på engelska, tyska och franska. Om

Ni behöver instruktioner för dessa explosionssäkra produkter

på annat språk, skall Ni kontakta närmaste Yokogawakontor

eller representant.

       AT E X Ex   ,   .        Ex           Yo ko g a wa   .

Page 9

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INTRODUCTION

EST

SLO

Page 10

1-1

IM 01F06A00-01E

1. HANDLING PRECAUTIONS

The Model DY Vortex Flowmeter and Model DYA Vortex

Flow Converter are thoroughly tested at the factory before

shipment. When these instruments are delivered, perform a

visual check to ascertain that no damage occurred during

shipment.

This section describes important cautions in handling these

instruments. Read carefully before using them.

If you have any problems or questions, contact your nearest

YOKOGAWA service center or sales representative.

1.1 Model and Specifications

The model and important specifications are indicated on the

data plate attached to the case. Verify that they are the same

as those specified in the original order, referring to paragraph

9.2 to 9.5. In any correspondence, always give model

(MODEL), serial number (NO) and calibrated range

(RANGE) from the data plate.

F010101.EPS

*1): K factor at 15°C *2): The product - producing country.

TAG NO.

4 ~ 20mA DC / PULSE

MPa at 38°C

10.5 ~ 42V DC

3UA

3 U

*1)

*2)

Figure 1.1(a) Example of Name Plate for Integral Type

F010102.EPS

TAG NO.

4 ~ 20mA DC / PULSE

3YA

TAG NO.

3WA

10.5 ~ 42V DC

MPa at 38°C

Figure 1.1(b) Example of Name Plate for Remote Type

1.2 Precautions Regarding Transportation and Storage Location

To protect against accidental damage to digitalYEWFLO

while transporting it to a new location, pack it in the original

packing as when shipped from the Yokogawa factory.

WARNING

The Vortex Flowmeter is a heavy instrument. Please be careful to prevent persons from injuring when it is handled.

Deterioration in insulation or corrosion can occur for

unexpected reasons if digitalYEWFLO is left uninstalled for

a prolonged period after delivery. If digitalYEWFLO is likely

to be stored over a prolonged period, observe the following

precautions.

■ Store the vortex flowmeter with forwarded statement.

■ Choose a storage location that satisfies the following

requirements:

•Not exposed to rain or splashwater.

• Less susceptible to mechanical vibration or shock.

• Kept within the temperature and humidity ranges shown

in the following table, preferably at normal temperature and humidity (approximately 25°C, 65%)

Temperature

Humidity

–40°C to +80°C

5 to 100% (no condensation)

T010201.EPS

1.3 Precautions Regarding Installation Locations

(1) Ambient Temperature

Avoid an area which has wide temperature variations.

When the installation area is subjected to heat radiation

from process plant, ensure adequate heat prevention or

ventilation.

(2) Atmospheric Conditions

Avoid installing the vortex flowmeter in a corrosive

atmosphere. When the vortex flowmeter must be

installed in a corrosive atmosphere, adequate ventilation

must be provided.

Page 11

1-2

IM 01F06A00-01E

1. HANDLING PRECAUTIONS

(3) Mechanical Shock or Vibration

The vortex flowmeter is of sturdy construction, but

select an area subject to minimize mechanical vibrations

or impact shock. If the flowmeter is subject to vibra-

tions, it is recommended that pipeline supports to be

provided as shown in Figure 1.2.

(4) Other Considerations

• Choose a location where is sufficient clearance around

digitalYEWFLO exist to allow such work as routine

inspections.

• Choose a location that ensures easy wiring and piping.

F010301.EPS

digitalYEWFLO Vortex Flowmeter

Pipeline

Pipeline Support

Figure 1.2

Page 12

2-1

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2. INSTALLATION

WARNING

This instrument must be installed by expert engineer or skilled personnel. The procedures described in this chapter are not permitted for operators.

2.1 Precautions Regarding Installation Locations

(1) Ambient Temperature

Avoid an area which has wide temperature variations.

When the installation area is subjected to heat radiation

from process plant, ensure adequate heat prevention or

ventilation.

(2) Atmospheric Conditions

Avoid installing the vortex flowmeter in a corrosive

atmosphere. When the vortex flowmeter must be

installed in a corrosive atmosphere, adequate ventilation

must be provided

(3) Mechanical Shock or Vibration

The vortex flowmeter is of sturdy construction, but

select an area subject to minimize mechanical vibration

or impact shock. If the flowmeter is subject to vibra-

tions, it is recommended that pipeline supports to be

provided as shown in Figure 2.1.

F020101.EPS

digitalYEWFLO Vortex Flowmeter

Pipeline

Pipeline Support

Figure 2.1

(4) Precautions Regarding Piping

(a) Ensure that the process connector bolts are tightened

firmly.

(b) Ensure that no leak exists in the process connection

pipeline.

maximum working pressure.

(d) Do not loosen or tighten the flange mounting bolts when

the assembly is pressurized.

(e) Handle the vortex flowmeter carefully when measuring

dangerous liquids, so that the liquids do not splash into

eyes or on face. When using dangerous gases, be careful

not to inhale them.

2.2 Piping

See Table 2.1 about Valve Position and Straight Pipe Length

and so on.

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2-2

IM 01F06A00-01E

2. INSTALLATION

●Piping support

Typical vibration immunity level is 1G for normal piping condition.Piping support should be fixed in case of over 1G vibration level.

●Installation direction

If a pipe is always filled with liquids, the pipe can be installed vertically or at inclined angle.

●Adjacent pipes

The process pipline inner diameter should be larger than the digitalYEWFLO inner diameter. Use the following adjacent pipe.

Model Code DY015 up to DY050 : Sch 40 or less.

DY025-/R1 up to DY080-/R1 DY040-/R2 up to DY100-/R2

Model Code DY080 up to DY300 : Sch 80 or less.

DY100-/R1 up to DY200-/R1 DY150-/R2 up to DY200-/R2

●Straight pipe length

*D: piping diameter

*K-factor may be influenced about 0.5% in case that straight

pipe length of upstream is less than values below.

Table 2.1 Installation

Refer to each element above for straight pipe run.

Reducer pipe:

Ensure the upstream straight pipe length to be 5D or more, and the downstream straight pipe length to be 5D or more for per reducer pipe.

Valve position and straight pipe length:

■ Install the valve on the downstream side of the flowmeter. The upstream straight pipe length dependent on the element located on the upstream such as reducer/expander, bent and etc., refer to description as above. Keep 5D or more for downstream straight pipe length.

■ In case the valve has to be installed on the upstream of the flowmeter, ensure the upstream straight pipe length to be 20D or more, and the downstream straight pipe length be 5D or more.

Piston-type or plunger pump:

Install the accumulator on the upstream side of digitalYEWFLO to reduce fluid vibrations.

Expander pipe:

Ensure the upstream straight pipe length to be 10D or more, and the downstream straight pipe length to be 5D or more for per expander pipe.

Bent pipe and straight pipe length:

1. Single bent pipe

2. Double bent pipe; coplanar

3. Double bent pipe; non coplanar

Fluid vibration:

For a gas line which uses a position-type or roots-type blower compressor or a high-pressure liquid line (about 1MPa or more) which uses piston-type or plunger-type pump, fluid vibrations may be produced. In these case, install valve on the upstream side of digitalYEWFLO. For inevitable fluid vibration, put a vibration damping device such as throttling plate or expansion section in the upstream side of digitalYEWFLO.

Description

Figure

digitalYEWFLO

Flow

5D or more

Reducer

5D or more

digitalYEWFLO

Flow

10D or more

Expander

5D or more

digitalYEWFLO

F01.01.EPS

Flow

digitalYEWFLO

Valve

5D or more

20D or more

digitalYEWFLO

Flow

10D or more

5D or more

digitalYEWFLO

Flow

10D or more

5D or more

digitalYEWFLO

Flow

20D or more

5D or more

Page 14

2-3

IM 01F06A00-01E

2. INSTALLATION

Description

Figure

Heat-Insulation:

When an integral-type flowmeter or a remote type detector is installed and the pipe carrying higt-temperature fluids is heat-insulated, do not wrap adiabatic materials around the installation bracket of the converter.

• Refer to “2.5 Cryogenic and High Process Temperature Version Insulation” and install it rightly.

Flushing of the pipe line:

Flush and clean scale, incrustation and sludge on the inside of pipe for newly installed pipe line and repaired pipe line before the operation. For flushing, the flow should flow through bypass-piping to avoid damaging the flowmeter. If there is no bypass-piping, install short pipe instead of the flowmeter.

Mounting Gasket:

Avoid mounting gaskets which protrude into the pipe line. This may cause inaccurate readings. Use the gaskets with bolt holes, even if digitalYEWFLO is the wafer type. When using a spiral gasket(without bolt holes), confirm the size with the gasket -manufacturer, as standard items may not be used for certain flange ratings.

Pressure and Temperature Taps:

Pressure tap outlet: install this tap between 2D and 7D on the downstream side of a flowmeter. Temperature tap outlet: install this on the downstream side 1D to 2D away from a pressure tap.

Valve positon (T-type piping exist):

When pulsation causes by a T-type piping exist, install the valve on the upstream of the flowmeter. Example:As shown in the figure, when the valve V1 is turned off, the fluid flow throught B as to meter A the flow is zero. But due to the pulsating pressure is detected, the meter is zero point become fluctuating. To avoid this, change the valve V1 location to V1'.

• In case of the Reduced Bore type, moisture may be remained upstream of the flowmeter. Drain it appropriately.

F020102-2.EPS

Relocating

Valve (Off)

Flow

V1’ V1

digitalYEWFLO

Pressure tap

Temperature tap

Upstream

Flow

downstream

2 to 7D 1 to 2D

Pipeline Flange

Pipeline

Bracket

Heat-Insulator

No good

Short pipe

Page 15

2-4

IM 01F06A00-01E

2. INSTALLATION

• Piping for Avoiding Bubbles

Flows containing both gas and liquid cause problems.

Avoid gas bubbles in a liquid flow. Piping should be

carried out to avoid bubble generation.

Install the valve on the downstream side of the flowme-

ter because pressure drop across the control valve may

cause gas to come out of the solution.

F020303.EPS

Flow

(Good)

(No Good)

Control

Value

Figure 2.4

(3) Multi-Phase Flow

digitalYEWFLO can measure gas, liquid and steam

when there is no change in state. However, accurate

measurement of mixed flows (e.g. gas and liquid) is not

possible.

F020304.EPS

(No Good)

Mist flow

(No Good)

Stratified flow

Bubble flow

Liquid Flow

Gas Flow

Figure 2.5

2.3 Precautions Regarding Installation

WARNING

In case of high process temperature, care should be taken not to burn yourself because the surface of body and case reach a high temperature.

(1) Gas or Steam Measuring Precautions

• Piping to Prevent Standing Liquid

Mount digitalYEWFLO in a vertical pipeline to avoid

liquid traps. When digitalYEWFLO is installed horizon-

tally, raise that part of the pipeline in which the

digitalYEWFLO is installed.

F020301.EPS

(Good)

(No Good)

Flow

Figure 2.2

(2) Liquid Measurement Precautions

To insure accurate measurement, the digitalYEWFLO

must always have a full pipe.

• Piping Requirements for Proper Operation

Allow the flow to flow against gravity. When the flow is

moving with gravity, lift the down-stream pipe length

above the digitalYEWFLO installation level to maintain

full pipeline.

Flow

(No Good) (No Good)

(Good)

h h>0

F020302.EPS

Figure 2.3

Page 16

2-5

IM 01F06A00-01E

2. INSTALLATION

(4) Pipeline Diameter and digitalYEWFLO

The process pipeline inner diameter should be slightly

larger than the vortex flowmeter inner diameter,

schedule 40 or lower pipe should be used for 1/2 to 2

inch flowmeters and schedule 80 or lower pipes for 3 to

8 inch flowmeters.

F020305.EPS

(No Good) (Good)

⭌

D1D

Figure 2.6

(5) Waterproof Construction

The vortex flowmeter is of IP67, NEMA4X

tightprotection. However, it cannot be used under water.

2.4 Piping to Improve Durability

(1) Pipe cleaning

• Flushing of pipe line (Cleaning)

Flush and clean scale, incrustation and sludge on the

inside of pipe wall for newly installed pipe line and

repaired pipe line before the operation.

• Fluid Carrying Solids

Do not measure fluids that carry solids (e.g. sand and

pebbles). Make sure users periodically remove solids

adhering to the vortex shedder.

• Obstruction of flow fluids may cause to make a chemical

reaction and the fluid will be crystallized and hardened,

and be deposited on the pipe wall and shedder bar.

In those cases, clean shedder bar.

(2) Bypass piping

Bypass piping is convenient for the maintenance of

digitalYEWFLO (vortex shedder cleaning, etc.).

F020401.EPS

Flow

Bypass shut-off valve

Upstream shut-off valve Downstream shut-off valve

digitalYEWFLO

Figure 2.7

2.5 Cryogenic and High process Temperature Version Insulation

When you are using cryogenic type and high process

temperature version of digitalYEWFLO Vortex Flowmeter

(Option code/HT /LT), refer to illustrated insulation method

as shown in Figure 2.8

(1) Installing Cryogenic Vortex Flowmeter

For cryogenic applications, use stainless steel mounting

bolts and nuts to install the flowmeter. These can be

ordered separately from YOKOGAWA. Cover the

flowmeter body with heat insulating material so that the

flowmeter can be maintained at ultra-low temperatures

(refer to the Figure 2.8).

(2) Maintenance for Cryogenic Applications

DY/LT uses special materials that produce vortex

flowmeter for cryogenic applications. When you are

replacing a shedder bar, specify cryogenic type shedder

bar. To avoid condensing in the terminal box, ensure that

the wire connecting port is well sealed.

F020501.EPS

Bracket

Cold insulating material

Figure 2.8

(3) Installing High Process Temperature

Vortex Flowmeter

Installation of the flowmeter is the same as the standard

type. Cover the flowmeter body with heat insulating

material following instruction of “CAUTION”.

CAUTION

Keep the upper limit of heat insulating material to prevent overheating of the terminal box. Seal the heat insulating material to avoid hot-air leakage.

UPPER LIMIT OF

HEAT INSULATING

MATERIAL

UPPER LIMIT OF

HEAT INSULATING

MATERIAL

50mm min. 50mm min.

Nominal Size: 100mm or under

Nominal Size: 150mm or over

F020501a.EPS

(4) Maintenance for High Process Tempera-

ture Applications

DY/HT uses special materials that produce vortex

flowmeter for High Process Temperature applications

When you are replacing a shedder bar or a gasket,

specify High Process Temperature type.

Page 17

2-6

IM 01F06A00-01E

2. INSTALLATION

2.6 Installing the Vortex Flowmeter

WARNING

The Vortex Flowmeter is a heavy instrument. Please be careful to prevent persons from injuring whin it is handled.

Before installing the instrument verify the following. The

direction of flow should match to the arrow mark on the

instrument body. When changing the orientation of the

terminal box, refer to "7.1."

Installation of Vortex flowmeter of the wafer and flange type

is shown in Table 2.3.

When installing the wafer type vortex flowmeter, it is

important to align the instrument bore with the inner diameter

of the adjacent piping.

To establish alignment, use the four collars supplied with the

instrument.

1. Four collars are supplied for 1/2 inch (15mm) to 1- 1/

2inch (40mm), 2 inch of JIS 10K or ANSI class 150 or

JPI class 150, and 3 inch of ANSI class 150 or JPI class

150. Install the instrument as illustrated in Table 2.2.

2. If the adjacent flanges have eight bolt holes, insert the

stud bolts in the holes on the instrument shoulder. Refer to

Figure 2.9.

Stainless steel bolts and nuts are available on order. When

they are to be supplied by the user, refer to Table 2.2 for

bolt length. Gaskets must be supplied by the user.

3. Gasket:

Avoid mounting gaskets which protrude into the pipeline.

This may cause inaccurate readings.

Use gaskets with bolt holes, even if digitalYEWFLO is of

the wafer type. Refer to Figure 2.10.

When using a spiral gasket (without bolt holes), confirm

the size with the gasket-manufacturer, as standard items

may not be used for certain flange ratings.

Table 2.2

T020601.EPS

Size

(inch)

Flange Rating

Major Diameter of

External Threed of

Stud Bolt d (mm)

Length R(mm)

15mm (1/2B)

JIS 10K, 20K/DIN 10, 16,25,40 JIS 40K ANSI 150, 300, 600

12 16

12.7

160 160 155

25mm

(1B)

JIS 10K, 20K, 40K ANSI 150 ANSI 300, 600 DIN 10, 16, 25, 40

12.7

15.9 12

160 155 160 160

40mm

(1-1/2B)

JIS 10K, 20K/DIN 10, 16, 25, 40 JIS 40K ANSI 150 ANSI 300, 600

16 20

12.7

19.1

160 170 155 170

50mm

(2B)

JIS 10K, 20K, 40K/ DIN 10, 16, 25, 40 ANSI 150, 300, 600

15.9

200

80mm

(3B)

JIS 10K/DIN 10, 16, 25, 40 JIS 20K, 40K ANSI 150 ANSI 300, 600

16 20

15.9

19.1

220

240

100mm

(4B)

JIS 10K/DIN 10, 16 JIS 20K/DIN 25, 40 JIS 40K ANSI 150 ANSI 300 ANSI 600

16 20 22

15.9

19.1

22.2

220 240 270 240 240 270

Bolt

Collar

Length

F020601.EPS

Figure 2.9

F020602.EPS

Pipeline Flange

Pipeline

Figure 2.10

Page 18

2-7

IM 01F06A00-01E

2. INSTALLATION

Table 2.3(a) Installation of Wafer Type Vortex Flowmeter

Wafer type

Description

When Installation Collars are not required,the installation vortex flowmeters applied to the following line sizes and flanges.

Size mm(inch) Flange Rating

50(2)

80(3)

100(4)

JIS 20K, 40K ANSI class 300,600 JPI class 300,600

JIS 10K, 20K, 40K ANSI class 300, 600 JPI class 300,600

JIS 10K, 20, 40K ANSI class 150, 300, 600 JPI class 150,300,600

Vertical InstallationHorizontal Installation

(1) Insert two bolts in the bolt holes

on the flowmeter shoulder to align the instrument body with the inner diameter of the adjacent piping.

(2) Tighten all bolts uniformly and check

that there is no leakage between the instrument and the flanges.

T020602.EPS

Flow Direction

Nut

Gasket

Bolt Hole

Gasket

Flange

Flow Direction

Bolt

Electrical Connection

Flange Flow Direction

Nut

Gasket

Collar (4 pcs.)

Gasket

Flange

Gasket

Flange

Bolt

Nut

Electrical Connection

Flow Direction

Size mm(inch)

Flange Rating

15 to 40

(1/2 to 1-1/2)

50(2)

80(3)

All ratings

JIS 10K, ANSI class 150, DIN PN10 to PN40

ANSI class 150, JPI class 150

Vertical Installation

When Installation Collar are required, the installation vortex flowmeters applied to the following line sizes and flange ratings.

The inside diameter of the gasket must be larger than the pipe inner diameter so that it will not disturb the flow in the pipeline.

Horizontal Installation

When installing the Flowmeter vertically in the open air, change the electrical connection port direction to the ground. If the electrical connection port is installed upwards, rain water might leak in.

WARNING

In case of vertical installation, two collars in the upper part might move after the installation. But it doesn't influence the performance, please use the flowmeter under such condition.

WARNING

(1) Insert two collars on each two bolts of bottom side of the flowmeter. (2) Fit the flowmeter body to the collars. And tighten the four bolts and nuts

uniformly.

(3) Check for leakage from the flange connections.

Page 19

2-8

IM 01F06A00-01E

2. INSTALLATION

Table 2.3(b) Installation of Flange Type Vortex Flowmeter

Horizontal Installation

Vertical Installation

Use the bolts and nuts supplied with the flowmeter of the user. The gaskets should be supplied by the user.

Flange type Description

The inside diameter of the gasket must be larger than the pipe inner diameter so that it will not disturb the flow in the pipeline.

T020603.EPS

CAUTION

Flow Direction

Nut

Bolt

Gasket

Flange

Table 2.3(c) Installation of remote Type Converter

Remote type converter Description

A signal cable (DYC) is used between the remote type flowmeter and the converter. The maximum signal cable length is 97.5ft (30m).

The converter is mounted on a 2-inch (60.5mm outer dia.) stanchion or horizontal pipe. Do not mount the converter on a vertical pipe. It makes wiring and maintenance difficult. The converter mounting orientation can be changed as illustrated below.

T020604.EPS

CAUTION

Nut

Bracket

2-inch Pipe

U-Bolt

Horizontal Pipe MountingStanchion Mounting

Page 20

3-1

IM 01F06A00-01E

3. WIRING

WARNING

The wiring of the vortex flowmeter must be performed by expert engineer or skilled personnel. No operator shall be permitted to perform procedures relating to wiring.

CAUTION

Once all wiring is complete, check the connections before applying power to the instrument. Improper arrangements or wiring may cause a unit malfunction or damage.

3.1 Wiring Precautions

Be sure to observe the following precautions when wiring:

CAUTION

• In cases where the ambient temperature exceeds 50°C (122°F), use external heatresistant wiring with a maximum allowable temperature of 70°C (158°F) or above.

• Do not connect cables outdoors in wet weather in order to prevent damage from condensation and to protect the insulation.

• Do not splice the cable between the flowtube terminal and the converter if it is too short. Replace the short cable with a cable that is the appropriate length.

• All the cable ends must be provided with round crimp-on terminals and be securely wired.

• Be sure to turn power off before opening the cover.

• Before turning the power on, tighten the cover securely.

• Explosion protected types must be wired in accordance with specific requirement (and, in certain countries, legal regulations) in order to preserve the effectiveness of their explosion protected features.

• The terminal box cover is locked by the clamp. In case of opening the terminal box cover, use the hexagonal wrench attached.

• Be sure to lock the cover by the clamp using the hexagonal wrench attached after installing the cover.

3.2 Wiring for Output Condition

Table 3.1 shows the connection method of several output

conditions.

(1) Analog Output (4 to 20 mA DC)

This converter uses the same two wires for both, the

signal and power supply. A DC power supply is required

in a transmission loop. The total leadwire resistance

including the instrument load and power distributor

(supplied by the user) must conform to a value in the

permissible load resistance range. Refer to Figure 3.1

shows.

E–10.5

0.0236

250

600

10.5 16.4 24.7

30 42

Power Supply Voltage E (V)

Communication

Applicable range

BRAIN and HART

Load resistance R (Ω)

F030201.EPS

Figure 3.1 Relationship between Power Supply Voltage

and Load Resistance (4 to 20 mA DC Output)

(2) Pulse output and Alarm, Status Output

This version uses three wires between the converter and

the power supply. A DC power and load resistance are

required, and pulse output is connected to a totalizer or

an electric counter. Low level of the pulse output is 0

to 2V. No communication is possible over a transmis-

sion line. Communication via the amplifier board is

always possible irrespective of the wiring condition.

(3) Simultaneous Analog-Pulse Output

When using digitalYEWFLO in the simultaneous analog

-pulse output mode, the communicable distance of the

transmission line is restricted on the wiring method.

Table 3.1 shows the examples of connection for this

output mode. Communication via the amplifier board is

always possible irrespective of the wiring condition.

Page 21

3-2

IM 01F06A00-01E

3. WIRING

IMPORTANT

For pulse output and the simultaneous analog-pulse output ,use the load resistance. Refer to Table 3.1.

3.3 Connection

Table 3.1 shows the connection sample of connection for

power supply and load resistance. The terminal position of

each connection is shown in Figure 3.2.

Integral type

Remote type

F030301.EPS

Input Terminal from builtin temperature sensor

Input Terminals from vortex detector

Common Terminal

4 to 20 mA DC Output Power Supply and Output Signal Terminals

Supply

⫹

–

Pulse Output Terminal

Pulse

⫹

Grounding Terminal

A B

Figure 3.2

Page 22

3-3

IM 01F06A00-01E

3. WIRING

Table 3.1 The connection example for simultaneous analog and pulse and alarm, status output.

digitalYEWFLO Electrical Terminal

250Ω

24V DC

PULSE

SUPPLY

–

Distributor

–

Use the Three-wire shielded cable.

*1 : To avoid the influence of external noise, use an electric counter which fits to the pulse frequency. *2 : Resistor is not necessary in case of an electric counter which can receive contact pulse signal directly.

Shielded Cable

–

PULSE

SUPPLY

digitalYEWFLO Electrical Terminal

Electric counter

Shielded Cable

PULSE

SUPPLY

–

Mognetic

valve

AC power supply

External Power supply 30V DC, 120mA max (Contact Rating)

digitalYEWFLO Electrical Terminal

Relay

This supply voltage requires a power sourse with a maximum output current of no less than E/R.

Analog Output

Pulse Output

Status Output

Alarm Output

Simultaneous

Analog

-Pulse Output

Description

Connection

T030301.EPS

0.1

C (

F ) × f ( kHz )

⬉ R (k

Ω

) ⬉

120

E (V)

The load resistance should be selected by calculation as shown below.

Example of CEV cable capacitance

0.1µF/km

Where E = Supply voltage (V) f = Frequency of pulse output (kHz) R = Value of load resistance (k

Ω

)

C = Cable capacitance (µF) P = Power ratio of the load resistance (mW)

P (mW) =

R (k

Ω

)

(V)

Example 3

In this case, No communi

-cation is possible (when shielded cable is not used).

The range of load resistance R for the pulse output.

Example 1

In this case, Communica

-tion is possible(up to a distance of 2km when a CEV cable is used).

Example 2

In this case, Communica

-tion is possible (up to a distance of 200m when a CEV cable is used) and R = 1k

Ω

In this case, Communication is possible (up to a distance of 2km when a CEV cable is used.)

In this case, No communication is possible.

250

Ω

–

PULSE

SUPPLY

digitalYEWFLO Electrical Terminal

Recorder or other instrument

This supply voltage requires a power sourse with a maximum output current of no less than E/R+25mA.

Electric counter

E(16.4 to 30V DC)

Counting input

Common

(or communication medium)

When analog and pulse output are used, the length of communication line is subjected to wiring conditions. Refer to example 1 to 3. If the communication carries out from amplifier, no need to consider wiring conditions.

–

For the shielded cables in this example of flowmeter installation, use two-wire separately shielded cables. This supply voltage requires a power sourse with a maximum output current of no less than E/R+25mA. The supply voltage requires output impedance no more than 1/1000 of R (load resistance).

PULSE

SUPPLY

Shielded Cable

Shield

digitalYEWFLO Electrical Terminal

Outer Jacket

(or communication medium)

250

Ω

(R)

Counting input

Common

Recorder or other instrument

Electric counter

E(16.4 to 30V DC)

(R)

Electric counter *1

(or communication medium)

–

250Ω

(R)

E(10.5 to 30V DC) Counting input

Common

24V DC

PULSE

SUPPLY

Distributor (or communication medium)

Shielded Cable

Shield

digitalYEWFLO Electrical Terminal

For the shielded cables in this example of flowmeter installation, use two-wire separately shielded cables.

This supply voltage requires a power sourse with a maximum output current of no less than E/R.

Outer Jacket

Page 23

3-4

IM 01F06A00-01E

3. WIRING

3.4 Wiring Cables and Wires

The following should be taken into consideration when

selecting cables for use between the converter and distributor.

(1) Use 600V PVC insulated wire or equivalent standard

wire or cable.

(2) Use shielded wire in areas susceptible to electrical noise

(both analog and pulse output versions).

(3) In areas with high or low ambient temperatures, use

wires or cables suitable for such temperatures.

(4) In atmospheres where oils or solvents, corrosive gases or

liquids may be present, use suitable wires or cables.

(5) Use cable which withstand temperature up to 60°C and

more, when ambient temperature is more than 60°C.

IMPORTANT

For the remote type, use DYC signal cable to connect the converter and remote type flowmeter(DY-N).

3.5 Connection of the Remote Type Signal Cable

The remote type signal cable is shown in Figure 3.3 and 3.4,

and the terminal is shown in Figure 3.5.

The maximum cable length is 30 m (97.5 feet).

Remove terminal box cover and wiring connection dust-cap

before wiring.

For remote type the converter has two electrical connections

(cable inlets). Use the left connection as viewed from the

terminal box for the DYC signal cable and the right connec-

tion for the transmission cable.

If a signal cable kit is supplied by YOKOGAWA, both ends

of the cable must be finished in accordance with the

following instructions as shown in 3.6.1 and 3.6.2.

CAUTION

After completing the signal cable connections, install the shielded cover to signal cable terminal as shown in Figure 3.6.

Unit : mm

F030501.EPS

(Black) (White) (Red) (Red) (White) (Black)

(Blue)

Specified

Length (L)

30m (max.)

DYC

Flowmeter

Converter

(Yellow) (Yellow)

Figure 3.3 DYC Signal Cable

B C

Outer shield

Inner shield

To Converter

To Flowmeter

F030502.EPS

T: Only for / MV

Figure 3.4 Construction of Remote Type Signal Cable

Detector (DY-N.../E1)

DYC

Flowmeter(DY-N) Converter(DYA)

T: Only for /MV

F030503.EPS

Input Terminal from builtin temperature sensor

Groundng terminal

Input Terminals from vortex detector

Common Terminal

4 to 20 mA DC Output Power Supply and Output Signal Terminals

Supply

⫹

–

Pulse Output Terminal

Pulse

⫹

A B

Figure 3.5 Terminal of Detector and Converter

F030504.EPS

Vor te x Flow Converter

Shield Cover

Signal Cable(DYC)

Powe r Cable

Figure 3.6 Shielded Cover

Page 24

3-5

IM 01F06A00-01E

3. WIRING

3.6 Method of Finishing the Signal Cable End(DYC)

3.6.1 For Vortex Flowmeter (DY-N)

Do not short-circuit the conductive layer and the terminals (A, B, C and T).

Slide FEP (fluorinated ethylene propylene) tubing over the twisted inner and outer drain wires C until the tubing cannot be slid any further, and then cut off the tubing leaving 5 mm (0.2 in.) of the stranded drain wires exposed.

Slide heat shrinkable tubing over the cable end so that the tubing covers the braided shield and overlaps both the polyethylene jacket and loose wires A, B, C, and T.

Slide a short piece of heat shrinkable tubing over each of wires A, B, C, and T. Install a crimp-on terminal lug at the tip of each wire. Crimp and solder each lug.

Slide each short piece of heat shrinkable tubing over the crimp sleeve. Heat all pieces of heat shrinkable tubing with a heat blower or dryer.

Attach an identification label to the end of the cable.

Description Figure

Unit : mm

(approx. inches)

T030601.EPS

Strip off the outer polyethylene jacket, outer braided shield and inner jacket, and inner braided shield as per the dimensions below.

Strip off the black conductive layer convering two wires completely, as per the dimensions below. Twist each of the conductor and drain wires so that there are no free strands.

Strip off about 5 mm (0.2 in.) of insulation for each of wires A, B, and T, and twist the strands of each wire. Twist the inner and outer drain wires together.

(*1): Only for /MV

T (yellow)

90 (3.5)

5 (0.2)

10 (0.4)

5 (0.2)

Black Conductive Layer

A (Red)

T (Yellow)

40 (1.6)

5 (0.2)

50 (2.0) 60 (2.4)

B (White)

3 (0.1) or less

Drain wires

T (Yellow)

5 (0.2)

B (White)

A (Red)

Heat Shrinkable Tubing

Crimp and Solder Here

Lug tip

Heat Shrinkable Tubing

T (Yellow)

A (Red) B (White)

5 (0.2)

FEP Insulation Tubing (Black)

T (Yellow)

A (Red) B (White)

NOTE

Check that the insulation resistance between each wire including the inner shield is 10MΩ or greater at 500V DC. Ensure that both ends of the wires are disconnected (open-circuited) during the check.

(B)

(C)

WHITE

BLACK

(A)RED

Unit : mm

F030601.EPS

3MAX

120

1055

Yellow(T) 50

Figure 3.7

NOTE

In case that the cable end finish parts assembly is necessary after delivery, contact your nearest Yokogawa sales office or the sales representative from which you purchased the product.

CAUTION

Do not touch the '' conductive layer" (black area covering the signal cables A and B) to the converter case, terminal, and other leadwires. If it is touched, operation of the converter may be incorrect. When the cable is terminated, remove the conductive layer properly.

Page 25

3-6

IM 01F06A00-01E

3. WIRING

3.6.2 For Vortex Flow Converter (DYA)

Do not short-circuit the conductive layer and the terminals (A, B, C, G and T).

Slide black FEP (fluorinated ethylene propylene) tubing over the inner shield drain wire C and blue FEP tubing over outer shield drain wire G until the tubing cannot be slid any further, and then cut off the tubing leaving 5 mm (0.2 in.) of the drain wires exposed.

Slide heat shrinkable tubing over the cable end so that the tubing covers the braided shield and overlaps both the polyethylene jacket and loose wires A, B, C, G, and T.

Slide a short piece of heat shrinkable tubing over each of wires A, B, C, G, and T. Install a crimp-on terminal lug at the tip of each wire. Crimp and solder each lug.

Attach an identification label to the end of the cable.

T030602.EPS

Description Figure

Unit : mm

(approx. inches)

Heat-shrinkable tubing

Crimp and Solder

Lug-Tips

(0.4)

Strip off the outer polyethylene jacket, outer braided shield and inner jacket, and inner braided shield as per the dimensions as shown.

Cut of the black conductive layers(convering the two wires) completely, as per the dimensions below. Twist each of the conductor and drain wires so that there are no free strands.

Strip off about 5 mm (0.2 in.) of insulation for each of wires A, B, and T, and twist the strands of each wire.

Slide each short piece of heat shrinkable tubing over the crimp sleeve. Heat all pieces of heat shrinkable tubing with a heat blower or dryer.

(*1): Only for /MV

B (White)

A (Red)

50 (2.0)

60 (2.4)

3 (0.1) or less

5 (0.2)

40 (1.6)

T (Yellow

(*1)

)

Black Conductive Layer

5 (0.2)

Black Conductive Layer

T (yellow)

15 (0.6) 10 (0.4)

(3.7)

5 (0.2)

G C

5 (0.2)

Drain wires

FEP Insulation Tubing (Blue)

FEP Insulation Tubing (Black)

5 (0.2)

G C

Heat Shrinkable Tubing

T (Yellow)

A (Red)

B (White)

T (Yellow)

A (Red)

B (White)

25 (1.0)15 (0.6)

NOTE

(A)RED

(B)WHITE

BLACK (C)

(G)BLUE

Unit : mm

F030602.EPS

120

10 10

MAX

YELOW(T) 50

Figure 3.8

NOTE

In case that the cable end finish parts assembly is necessary after delivery, contact your nearest Yokogawa sales office or the sales representative from which you purchased the product.

CAUTION

Page 26

3-7

IM 01F06A00-01E

3. WIRING

3.7 Wiring Cautions

(1) Lay wiring as far as possible from electrical noise

sources such as large transformers, motors and power

supplies.

(2) It is recommended that crimp-on type solderless lugs be

used for large wire ends.

(3) For general use, it is recommended that conduits and

ducts or racks be used to protect wiring from water or

mechanical damage. A rigid steel conduit or flexible

metal conduit is recommended. See Figure 3.9.

F030701.EPS

Figure 3.9

3.8 Grounding

IMPORTANT

When a lightning protector (option code: /A) is selected, use a grounding resistance of 10Ω or less.

(1) The grounding terminals are located on the inside and

outside of the terminal area. Either terminal may be

used.

(2) For pulse output version, ground the flowmeter. Also

ground the shielded cable between the converter and the

pulse receiver.

(3) Grounding should satisfy Class D requirements (ground

resistance 100Ω or less).

(4) Use 600V PVC insulated wire for grounding.

Integral Type

F030801.EPS

Grounding

terminals

Figure 3.10

Page 27

4-1

IM 01F06A00-01E

4. BASIC OPERATING PROCEDURES

Data setting can be performed with the three keys on the

front panel (SET,SHIFT and INC) or using a handheld

BRAIN(BT200) terminal and HART communicator.

4.1 Construction of the Display

Figure 4.1 shows the configuration of the digitalYEWFLO

display panel (if equipped).

SET

INCSHIFT

F040101.EPS

Data Display (Upper)

Unit Display

Setting Keys

Alarm Display

Data Display (Lower)

Figure 4.1 Construction of the Display

Data Display(Upper) : Flowrate data, setting data, total

data and temperature data

(/MV).

Data Display(Lower) : Total data, alarm data and

temperature data (/MV).

Alarm Display : Alarm of a flow error and a

vibration error.

Unit Display : Flowrate unit.

Setting Keys : These keys are used to change

flow rate data displays and

type of setting data.

Page 28

4-2

IM 01F06A00-01E

4. BASIC OPERATING PROCEDURES

4.2 Display Contents in Display Section

The display content items are classified in the following three items.

Table 4.2 Mode Name List

Mode (status) Name Display Contents

Flowrate display mode

Setting mode

Alarm number display mode

A mode in which instantaneous flow rates or totalized values are displayed. Display content is usually selected either in display content selection mode or by setting parameters via BRAIN communication.

In this mode, parameter contents are confirmed or data is updated using the setting section. The mode is changed to this mode when [SET] key is pressed in normal mode.

This mode is overlapped when an alarm is occurring in display mode. The alarm number presentation to indicate alarm contents (about 2 sec) and the normal data display (about 4 sec ) are repeated alternatively.

Mode represents that the system is in a state where the relevant setting or display is possible.

T040201.EPS

● Display Example

F040201.EPS

SET

SHIFT + SET

Flowrate Display Mode Setting Mode Error Mode

UPPER Flow rate

LOWER Total rate

NORMAL INDICATION (4sec)

ERROR INDICATION (2sec)

UPPER Flow rate (%)

LOWER Blank

SHIFT

Alternately

This mode display can be selected below.

• Upper display : Flow rate

• Lower display : Total rate or Blank

• When an alarm situation occurs,

this mode will replace the current mode (flow rate or setting mode) to show what type of alarm has occurred.

• Refer to “5.5 Error Code Lists”

about the error descriptions and error No.

• This mode is used to check parameter

content and rewrite data. This mode can be called up from the flowrate display mode by pressing the “SET” key.

• Setting item and setting number can be

changed when pressing “SHFT” key.

• This mode can be called up by pressing

“SET” key while pressing “SHIFT” key when setting mode is displayed.

Switching of setting number

Page 29

4-3

IM 01F06A00-01E

4. BASIC OPERATING PROCEDURES

4.3 Display Contents in Display Section

The display mode is a mode in which instantaneous flow

rates or totalized flow are displayed. In display mode, there

are six display modes as shown in Table 4.3.

Table 4.3 Display Mode

Instantaneous % flow rate is displayed.

% Display (Flow rate)

Instantaneous flow rate in an engineering unit is displayed.

Engineering Display Unit

Totalized flow displayed without indicating the decimal point.

Totalized Display

Name Contents

Upper

Display

Lower

Display

T040301.EPS

------Blank

% Display (Temperature) (*1)

Temperature display(*1)

Temperature value is displayed.

Instantaneous temperature is displayed. In this case, “t” is displayed simultaneously (Refer to Figure 4.2).

(*1) When option code /MV is selected,

this function is available.

F040301.EPS

Figure 4.2 Example

Display mode can be changed using the BT200 terminal or

the indicator setting section.

• For operation using BT200, perform changes using the

parameter item “ B30:UPPER DISP” and “B31:LOWER

DISP” referring to section 5. Parameters.

• For operation using indicator, change B30 and B31

parameter item number to display an appropriate display.

IMPORTANT

After setting a parameter, keep the power on for at least 30 seconds. If the power of flowmeter is turned off, a parameter setting is released.

Page 30

4-4

IM 01F06A00-01E

4. BASIC OPERATING PROCEDURES

4.3.1 Change the Display Mode from % Display to Engineering Unit

The display mode can be changed referring 5.3 parameter list.

SET

INCSHIFT

SET

INCSHIFT

SET

INCSHIFT

SET

INCSHIFT

SET

INCSHIFT

SET

INCSHIFT

SET

INCSHIFT

SET

INCSHIFT

SET

INCSHIFT

F040302.EPS

Indication of % display.

Enter the setting mode.

Enter the parameter item.

Indicate “ 30 ” referring 5.3 parameter list.

Enter the data input item.

Indicate “ 01 ” of engineering unit referring 5.3 parameter list.

Ensure the setting data.

Finish the setting.

Return to display mode.

Press “ SET ” key.

Press “ SHIFT ” key.

Press “ INC ” key any time.

Press “ SET ” key.

Press “ INC ” key.

Press “ SET ” key.

Press “ SET ” and “ SHIFT ” key.

IMPORTANT

After setting a parameter, keep the power on for at least 30 seconds. If the power of flowmeter is turned off, a parameter setting is released.

Page 31

4-5

IM 01F06A00-01E

4. BASIC OPERATING PROCEDURES

4.3.2 Indicate the Total Rate in the Lower Display

The display mode can be changed referring 5.3 parameter list.

SET

INCSHIFT

SET

INCSHIFT

SET

INCSHIFT

SET

INCSHIFT

SET

INCSHIFT

SET

INCSHIFT

SET

INCSHIFT

SET

INCSHIFT

SET

INCSHIFT

F040303.EPS

Press “ SET ” key.

Press “ SHIFT ” key.

Press “ INC ” key any time.

Press “ SET ” key.

Press “ INC ” key.

Press “ SET ” key.

Press “ SET ” and “ SHIFT ” key.

Indication of engineering unit display. Lower display is “ Blank ”.

Enter to the setting mode.

Enter to the parameter item.

Indicate “ 31 ” referring 5.3 parameter list.

Enter the data input item.

Indicate “ 01 ” of lower the display item referring 5.3 parameter list.

Ensure the setting data.

Finish the setting.

Return to display mode.

IMPORTANT

After setting a parameter, keep the power on for at least 30 seconds. If the power of flowmeter is turned off, a parameter setting is released.

Page 32

4-6

IM 01F06A00-01E

4. BASIC OPERATING PROCEDURES

4.4 Setting Mode

The setting mode is used for checking parameters and

rewriting data. The following is an overview of the setting

mode.

NOTE

• Refer to 5.3 Parameter List and 5.4 Parameter description for information on how to change setting.

4.4.1 Structure of Setting Mode Display

Simple parameter sheet

IN this sheet, a setting flow chart and the parameter list required to operate digitalYEWFLO is indicated.

SET

INCSHIFT

F040401.EPS

Item number

Change item number using “SHIFT” key and “INC”key.

Data number

Change the data number using “SHIFT” key and “INC” key.

SET

Flowrate Display Mode

Parameter Setting Mode

Select Item

Set Data

Check Setting Data

Fix Setting Data

SHIFT+SET

SET

SHIFT+SET

SET

SHIFT or INC

SHIFT : Menu

Item Number

INC : Inc. Menu / Item Number

INC : Inc. Data Number

Select Type

Numeric Value Setting Type

SHIFT : Move Cursor INC : Inc. Numeric Value

F040401_1.EPS

Figure 4.3 Indicator Construction and Parameter Setting

Procedure

• When completing setting, press “SHIFT” key and “SET”

key simultaneously. The mode move to the “display

mode”.

IMPORTANT

After setting a parameter, keep the power on for at least 30 seconds. If the power of flowmeter is turned off, a parameter setting is released.

Page 33

4-7

IM 01F06A00-01E

4. BASIC OPERATING PROCEDURES

4.4.2 Method of Parameter Setting

■ Input method of numeric data

Example 1: Change the span from 100m3/h to 150m3/h The setting mode can be changed referring 5.3 parameter list

SET

INCSHIFT

SET

INCSHIFT

SET

INCSHIFT

SET

INCSHIFT

SET

INCSHIFT

SET

INCSHIFT

SET

INCSHIFT

SET

INCSHIFT

F040402.EPS

Press “ SET ” key.

Press “ SHIFT ” key any time.

Press “ INC ” key any time.

Press “ SET ” key.

Press “ SET ” and “ SHIFT ” key.

Indication of % flow rate.

Enter to the setting mode. (Span number is “ B10 ”)

Enter to data number item.

Move the position to input the data.

Set “ 5 ” and indicate “ 150m

/h ”.

Ensure the setting data.

Complete the Setting.

Return to display mode.

IMPORTANT

After setting a parameter, keep the power on for at least 30 seconds. If the power of flowmeter is turned off, a parameter setting is released.

Page 34

4-8

IM 01F06A00-01E

4. BASIC OPERATING PROCEDURES

■ Input method of selection items

Example 2: Change the pulse output to alarm output. The setting mode can be changed referring 5.3 parameter list

SET

INCSHIFT

SET

INCSHIFT

SET

INCSHIFT

SET

INCSHIFT

SET

INCSHIFT

SET

INCSHIFT

SET

INCSHIFT

SET

INCSHIFT

SET

INCSHIFT

F040403.EPS

Press “ SET ” key.

Press “ SHIFT ” key.

Press “ INC ” key any time.

Press “ SET ” key.

Press “ SET ” and “ SHIFT ” key.

Indication of % unit.

Enter to the setting mode.

Enter to the parameter item.

Indicate “ 20 ” referring 5.3 parameter list.

Enter to the data input item.

Indicate “ 03 ” of alarm output item referring 5.3 parameter list.

Ensure the setting.

Finish the parameter setting.

Return to display mode.

IMPORTANT

After setting a parameter, keep the power on for at least 30 seconds. If the power of flowmeter is turned off, a parameter setting is released.

Page 35

4-9

IM 01F06A00-01E

4. BASIC OPERATING PROCEDURES

4.5 Operation for the BRAIN Terminal (BT200)

This section describes the operation procedures using a

BRAIN Terminal (BT200). For details on the functions of the

digitalYEWFLO, refer to 5.3 Parameter List. And also, see

the “Model BT200 BRAIN TERMINAL” Instruction Manual

(IM 1C0A11-01E) for more detailed Information.

4.5.1 Connection Method for the BT200

(1) Connecting the BT200 to a 4 to 20mA DC

Transfer Line

The communication signal of the digitalYEWFLO is

superimposed onto the 4 to 20mA DC analog signal to

be transferred.

digitalYEWFLO

SUPPLY

BT200 BT200 BT200 BT200

Inter mediate terminals

4 to 20mA DC Signal transmission line

Control room

Receiving instrument load resistance: 250 to 600Ω

Te rminal Board

SUPPLY

F040501.EPS

Figure 4.4 Communicating for a 4 to 20mA DC Signal

Line

IMPORTANT

The communicable distance of the transmission line is restricted depending on the wiring method. Refer to 3. WIRING.

IMPORTANT

After setting a parameter, keep the power on for at least 30 seconds. If the power of flowmeter is turned off, a parameter setting is released.

(2) Connecting BT200 to Flow Converter

Removing a cover and indicator, the terminals for brain

communication are provided on the circuit board.

Connect BT200 to the terminal of HHT-COM on the

circuit board.

TP2

COM

HHT

F040502.EPS

BT200

Display

Indicator Mounting Screw (2 PCS)

Circuit board

Figure 4.5 Connection of BT200 to Flow Converter

Page 36

4-10

IM 01F06A00-01E

4. BASIC OPERATING PROCEDURES

4.5.2 Displaying Flow Rate Data

Flowrate data can be displayed on the BT200 screen

according to the following procedure.

F040503.EPS

Tu rn the power on and the screen on the left

“Please wait....” is

displayed for a few minutes.

Pressing the “ENTER” key causes the initial data screen on the left to be displayed.

Pressing the “F4” or “ENTER” causes the menu screen on the left to be displayed.

Executing Function Key F1 :

Updates the current data.

F2 : Displays the self-check

screen.

F3 : Displays the parameter

print sreen.

F4 : Returns to the previous

panel. (menu panel)

With “A : DISPLAY” displayed on the menu panel in the inverse video bar, press “ENTER” key and the flow data screen appears.

Maximum three data items can be displayed on one screen.

The tag number specified upon ordering is entered.

Inverse Video Bar

Function Key

———WELCOME——— BRAIN TERMINAL ID:BT200

Check connection Push ENTER key

UTIL FEED

MENU A:DISPLAY B:EASY SETUP C:BASIC SETUP D:AUX. SETUP E:METER SETUP H:ADJUST

HOME SET ADJ ESC

PARAM 01:MODEL digitalYEWFLO 02:TAG NO.

03:SELF CHECK GOOD

PARAM A10:FLOW RATE(

)

80.0

A20:FLOW RATE 100m3/h A30:TOTAL 1417

DATA DIAG PRNT ESC

PARAM A10:FLOW RATE(

)

80.0

A20:FLOW RATE 100m3/h A30:TOTAL 1417

DATA DIAG PRNT ESC

● Function key

The functions of the function keys vary with the commands

being displayed on the display panel.

Table 4.4

ADJ

CAPS/caps

CLR

COPY*

DATA

DEL

DIAG

ESC

FEED*

HOME

LIST*

PARM

PON/POFF*

PRNT*

SET

SLOT

GO*

STOP*

UTIL

Calls up the adjustment menu.

Changes the uppercase / lowercase mode.

Clears entered data / deletes all data.

Prints parameters on the screen.

Updates parameter data.

Deletes one character.

Calls up the self-check screen.

Returns to the preceding screen.

Paper feed.

Calls up the home menu (A : DISPLAY).

Prints all parameters of the menus.

Setting stop / re-setting. Returns to the previous screen.

Goes to the next screen.

Parameter number setting mode.

Printer output of data whose setting was changed Mode on / off.

Changes to the prints mode.

Calls up the setting menu (B : SETTING).

Returns to the slot selection screen.

Starts print out.

Stops printing.

Tr ansfers to the utility screen.

Command Description

T040501.EPS

*The command is available only for BT-200-P00

Page 37

4-11

IM 01F06A00-01E

4. BASIC OPERATING PROCEDURES

4.5.3 Setting Parameters

This section describes the setting method using a BRAIN

Terminal (BT200). For details on the method, refer to 5.3

Parameter List.

(1) Setting Flow Span

Example : Change flow span 100m3/h to 150m3/h

F040504.EPS

Move the inverse video bar to “B10 : FLOW SPAN”.

The data setup screen is displayed. If the security screen is displayed, enter the security code.

Enter “150” using the alphanumeric keys.

Pressing the enter key, inverse video bar is flashed.

The data setting can be completed.

If data setting is missing, press “F3” key and reset the data.

Setting is completed. The screen returns to the preceding screen when the “F4” (ESC) key is pressed.

MENU A:DISPLAY B:EASY SETUP C:BASIC SETUP D:AUX. SETUP E:METER SETUP H:ADJUST

HOME SET ADJ ESC

PARAM B10:FLOW SPAN 100 m3/h B15:DAMPING 4 sec B20:CONTACT OUT SCALED PULSE

DATA DIAG PRNT ESC

PARAM B10:FLOW SPAN 100 m3/h B15:DAMPING 4 sec B20:CONTACT OUT SCALED PULSE

DATA DIAG PRNT ESC

SET B10:FLOW SPAN 100 m3/h

DEL CLR ESC

SET B10:FLOW SPAN

100.00 m3/h 150

DEL CLR ESC

SET B10:FLOW SPAN

100.00 m3/h 150

print off F2:printer on

FEED POFF NO

SET B10:FLOW SPAN

150.00 m3/h

FEED NO OK

Enter menu item, and press “ ” key. Move the inverse video bar to “B : EASY SETUP”.

IMPORTANT

After setting a parameter, keep the power on for at least 30 seconds. If the power of flowmeter is turned off, a parameter setting is released.

Page 38

4-12

IM 01F06A00-01E

4. BASIC OPERATING PROCEDURES

(2) Change the Pulse Output to Alarm Output.

F040505.EPS

Enter menu item, and press “ ” key. Move the inverse video bar to “B : EASY SETUP”.

Item B menu is displayed.

Move the inverse video bar to “B20 : CONTACT OUT”.

Pressing “ENTER”, cause the data setup screen to be displayed.

If the security screen appears, enter the security code.

Move the inverse video bar to “ALARM”.

2 Times

4 Times

Pressing the enter key, inverse video bar is flashed.

The data setting can be completed.

If data setting is missing, press “F3” key and rewrite the data.

Setting is completed. The screen returns to the preceding screen when the “F4” (ESC) key is pressed.

MENU A:DISPLAY B:EASY SETUP C:BASIC SETUP D:AUX. SETUP E:METER SETUP H:ADJUST

HOME SET ADJ ESC

PARAM B10:FLOW SPAN 100 m3/h B15:DAMPING 4 sec B20:CONTACT OUT SCALED PULSE

DATA DIAG PRNT ESC

PARAM B10:FLOW SPAN 100 m3/h B15:DAMPING 4 sec B20:CONTACT OUT SCALED PULSE

DATA DIAG PRNT ESC

PARAM B10:FLOW SPAN 100 m3/h B15:DAMPING 4 sec B20:CONTACT OUT ALARM

DATA DIAG PRNT ESC

SET B20:CONTACT OUT SCALED PULSE < OFF > < SCALED PULSE > <UNSCALED PULSE>

ESC

SET B20:CONTACT OUT SCALED PULSE <UNSCALED PULSE> < FREQUENCY > < ALARM >

ESC

SET B20:CONTACT OUT SCALED PULSE ALARM

Print off F2:printer on

FEED POFF NO

SET B20:CONTACT OUT ALARM

FEED NO OK

IMPORTANT

After setting a parameter, keep the power on for at least 30 seconds. If the power of flowmeter is turned off, a parameter setting is released.

Page 39

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IM 01F06A00-01E

4. BASIC OPERATING PROCEDURES

4.6 Operation via HART configuration tool

NOTE

This chapter describes the digitalYEWFLO as an example.

Note: HART is a registered trademark of the HART Communication

Foundation.

4.6.1 Matching of instrument

(digitalYEWFLO) DD and HART Configuration Tool’s DD

Before using the HART Configuration Tool (such as

FieldMate), confirm that the DD (Device Description) of the

digitalYEWFLO is installed in the Configuration Tool before

using.

The DD revisions for digitalYEWFLO and Configuration

Tool’s can confirm in accordance with the following steps.

If the correct DD is not installed in the HART Configuration

Tool, download them from the official HART programming

sites, otherwise, contact the respective vendors of the

Configuration Tool for its upgrade information.

1. Confirmation of the device revision for

digitalYEWFLO (1) Connect the Configuration Tool to the

digitalYEWFLO.

(2) Select the “5.Device information” menu. (3) Open the “7.Revision numbers” menu. (4) The device revision of the digitalYEWFLO is

displayed at “2.Fld dev rev.”

2. Confirmation of the device revision for the HART

Configuration Tool (1) Turn on the power of the Configuration Tool

under the standalone condition.

(2) Confirm the installed DD revision in accordance

with the procedure of the Configuration Tool. Refer to its manual how to confirm it in detail.

The first 2 digits of the DD file are expressed

the device revision, and its last 2 digits are expressed the DD revision.

01 01.XXX

DD revision Device revision

4.6.2 Interconnection between digitalYEWFLO and HART Configuration Tool

The HART Configuration Tool can interface with the

digitalYEWFLO from the control room, the digitalYEWFLO

site, or any other wiring termination point in the loop, provided there is a minimum load resistance of 250 Ω

between the connection and the receiving instrument. To

communicate, it must be connected in parallel with the

digitalYEWFLO, and the connections must be non-polarized.

Figure 4.6 illustrates the wiring connections for a direct

interface at the digitalYEWFLO site. The HART Configura-

tion Tool can be used for remote access from any terminal

strip as well.

–

4 to 20 mA DC signal line

Control room

Ter minal board

Receiving instrument load resistance: 250 Ω to 600 Ω

Relaying terminals

HART

Configuration Tool

HART

Configuration Tool

HART

Configuration Tool

F040602.EPS

digitalYEWFLO

SUPPLY

Figure 4.6 Connecting the HART Communicator

WARNING

Be sure to set parameters as “Protect” on the write protect function after finish of parameter setting work. Refer to 4.6.7 Write Protect how to use the write protect function in detail.

IMPORTANT

If the power of flowmeter is turned off within 30 seconds after parameters have been set, these settings will be canceled. Accordingly, please keep the power on for at least 30 seconds after setting parameters.

NOTE

Before updating any setting, remember to always check the data content you want to change as described in 5.4: Parameter Description.

Page 40

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IM 01F06A00-01E

4. BASIC OPERATING PROCEDURES

4.6.3 Basic Setup

■ Tag and Device Information

The tag number and device information can be checked as

follows:

• The location for the tag number and device information

Item Precedure

T040601.EPS

1 Device setup → 3. Basic setup → 1.Tag

1. Device setup → 4. Detailed setup →

5. Device information → 3. Descriptor

1. Device setup → 4. Detailed setup → 5. Device information → 4. Message

1. Device setup → 4. Detailed setup → 5. Device information → 5. Date

Ta g Descriptor

Message

Date

When changing the tag number or device information, enter

the information directly within the following limitations.

Item Number and characters

T040701.EPS

8 16 32 2/2/2 (mm/dd/yy)

• mm : month

• dd : day

• yy : year

Ta g Descripter Message Date

4.6.4 Parameter configuration

The parameter structure of the HART configuration tool is

hierarchical.

Refer to 4.6.10, Menu Tree Example for the corresponding

parameters. The menu tree shows a cross-reference of the

parameters for HART configuration Tool and BRAIN

Terminal.

See 5.4 Parameter Description for the functions of param-

eters.

Note that some display parameters of digitalYEWFLO are

different from those of HART Configuration Tools.

4.6.5 Data Renewing and Upload/download function

(1) Data renewing

Following data are renewed in 0.5 to 2 seconds cycle.

PV, PV%, rnge, PVAO1, Total

Temp, TV% rnge, AO3: /MV only

(2) Upload/download function

Upload/download parameters from digitalYEWFLO to

the HART Configuration Tool.

Refer to the Menu Tree for the applicable parameters.

4.6.6 Self-diagnostic

The self-diagnostic function of the digitalYEWFLO is

explained in 5.5 Error Code Lists.

It is also possible to carry out this function via HART

Configuration Tool.

The location in the 4.6.10 Menu Tree is:

1. Device Setup→2. Diag/Service→2. Self/test status

4.6.7 Software Write Protect

digitalYEWFLO configured data is saved by using a write

protect function. The write protect status is set to “Yes” when 8 alphanumeric characters are entered in the New password

field and transferred to the transmitter. When write protect is

set to “Yes,” the transmitter does not accept parameter

changes. When the same eight alphanumeric string entered in the New password field is also entered in the Enable wrt 10min field and transferred to the digitalYEWFLO, it will be

possible to change transmitter parameters during a 10 minute

period.

To change the digitalYEWFLO from the write protect “Yes”status back to Write protect “No” status, use Enable wrt 10min to first release the write protect function and then enter eight spaces in the New password field.

4.6.8 HART Specific Functions

■ Burst Mode

digitalYEWFLO continuously sends the data via HART

Configuration Tool when the burst mode is set on (any one

of PV, PV % range, or AO1. The data is sent intermittently

as a digital signal at 3 times a second.

The burst mode is set as follows.

(1) Setting the data to be sent

The location in 4.6.10 Menu Tree is:

1. Device Setup → 4. Detailed Setup → 3. Configure outputs → 5. HART Output → 4. Burst option

Select the type of data to be sent from the following

options:

- Instantaneous flow rate (PV)

- Output in % and current output (% range/current)

-4 to 20 mA output (Process vars/crnt)

(2) Setting the burst mode

The location in 4.6.10 Menu Tree is:

1. Device Setup → 4. Detailed Setup → 3. Configure outputs → 5. HART Output → 4. Burst mode Then, select “On” at the menu to start the burst mode.

To release from the burst mode, call up the burst mode display, and set to “Off.” The default setting is “Off.”

Page 41

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IM 01F06A00-01E

4. BASIC OPERATING PROCEDURES

■ Multidrop Mode

When set in the multidrop mode, up to 15 field devices in a

single communications line can be connected. To activate

multidrop communication, the address of the field devices

must be set to a number from 1 to 15. This deactivates the 4

to 20 mA analog output, fixing it to 4 mA. Burn out is also

disabled.

The multidrop mode is set as follows.

(1) Setting the polling address

The location in 4.6.10 Menu Tree is:

1. Device Setup → 4. Detailed Setup → 3. Configure outputs → 5. HART Output → 1. Poll addr

Set a number from 1 to 15 to Poll addr.

(2) Activating the multidrop mode

The location in 4.6.10 Menu Tree is: Online ↓ Utility → Configure Communication →

Polling Confirm that any parameter of Polling is set to “Always Poll,” “Ask Before Polling,” or “Digital Poll.”

NOTE

1. If “Never Poll” or “Poll Using Tag” is selected in “Polling”, the “Online Menu” cannot be called up and displayed. Be sure to select “Digital Poll” in “Polling” after assigned the polling address.

2. When the same polling address is assigned for two or more field devices in multidrop mode, communication with these field devices is disabled.

(3) Communication when set in the multidrop mode

1. The HART Configuration Tool searches a field

device that is set in the multidrop mode when the

HART Configuration Tool is turned on.

When the HART Configuration Tool is connected to

the field device, the polling address and the tag will

be displayed.

2. Select the field device, and then communication with

it is possible. The communication speed is slow in

this case.

3. To communicate with another field device, turn off

the power once and then turn it back on, or call up “Online” menu, and select “Online.”

The polling address and the tag will appear. Select

the field device.

(4) Release of the multidrop mode

Call up the “Poll addr” display, and set the address to “0.”

4.6.9 Other operations for the HART Configuration Tool

Regarding other operations for the HART Configuration

Tool, refer to the HART Configuration Tool operations

manual.

Page 42

4-16

IM 01F06A00-01E

4. BASIC OPERATING PROCEDURES

4.6.10 Menu Tree

1 Device setup 2 PV [cr] 3 AO1 [cr] 4 Flow Span [r] 5 Mode [cr]

Online Menu

1 Process variables

2 Diag/Service

3 Basic setup

1 PV [cr] 2 PV % rnge [cr] 3 A01 [cr] 4 Total [cr] {5 temp} [cr] {6 TV % rnge} [cr] {7 A03} [cr]

1 Self/test status 2 Loop test [#] 3 Test output[#] 4 D/A trim[#]<H10, H11> 5 Scaled D/A trim[#]

1 Self test

[#]

2 Status

1 Tag[u/d] <C10> 2 Easy setup [r&w]

1 Out analog[r&w] 2 Out pulse[r&w] 3 Out status 4 End

Status group 1[r] (*8) Status group 2[r] (*9) (Status group 3)[r] (*10)

to be continued to next page

[r] : read [cr] : continuous read [w] : write [u/d] : upload/download data [sel] : select [#] : method { } : Only for Option code /MV < > : Parameter No. in display and BRAIN Terminal ( ) : Related parameter

Offline

Online Frequency Utility

New Configuration Saved Cpnfiguration

Off [r&w sel] On

Contact out[u/d][#] <B20>

2 Display mode <B30>

3 Totalizer <B31>

{4 Analog out select}[#]

Off Scaled pulse Unscaled pulse Frequency Alarm Flow SW(Low:On) Flow SW(Low:Off)

1 Pulse rate[r&w][u/d] <B21>

1 Frequency at 100%[r&w][u/d]<B22>

1 Setting level[r&w][u/d]

Upper display[u/d]<B30>

Lower display[u/d]<B31>

Flow rate(%) [r&w sel] Flow rate {Temp (%)}

Blank [r&w sel] Total {Temp}

1 Total[cr] <A30> 2

Total start/stop[u/d]<B40>

Total rate[r&w][u/d]<B45>

4 Total reset[w,#]

Stop [r&w sel] Start

Flow Temp

1 Temp unit[u/d] <D20> 2 Temp 0% [r&w][u/d]<B51> 3

Temp 100% [r&w][u/d]<B52> 4 Temp error out[u/d]<F58> 5 End

0% [r&w sel] Out limit(H) Process temp

(*5)

F040608_1.EPS

<B50>

<B47>

<B23>

Page 43

4-17

IM 01F06A00-01E

4. BASIC OPERATING PROCEDURES

1 Device setup 2 PV [cr] 3 AO1 [cr] 4 Flow Span [cr] 5 Mode

3 Basic setup

Fluid [#]

Flow span[r&w][u/d] 5 PV Damp[r&w][u/d] <B15>

Online Menu

to be continued to next page

Liquid:Volume Gas/Steam:Volume

Liquid:Mass Gas/Steam:Mass

Gas:STD/Normal

1 Volumetric unit[u/d] <C22>

2 Time unit[u/d] <C40>

3 End

Cum [r&w sel](*2) k Cum L Cuft m Cuft k Cuft gal k gal Impgal k Impgal bbl m bbl k bbl

s [r&w sel](*1) min h d

1 Density unit[u/d] <C25>

Process density[r&w][u/d]<C26>

3 Mass unit[u/d] <C27>

4 Time unit[u/d] <C40> (*1) 5 End

kg/Cum [r&w sel](*6) lb/Cuft lb/gal lb/Impgal

Kg [r&w sel](*3) MetTon lb k lb

1 Temp unit[u/d] 2 Process temp[r&w][u/d] <C31> 3 Base temp[r&w][u/d] <C32> 4 Pressure unit [u/d] <C33>

Process pressure[r&w][u/d] 6 Base pressure[r&w][u/d] <C35> 7 Deviation[r&w][u/d] <C36> 8 STD/Normal unit[u/d] <C37>

9 Time unit[u/d] <C40> 10 End

deg C [r&w sel](*5) deg F

MPa abs [r&w sel](*5) kPa abs kg/Sqcm abs bar abs psia

NmlCum [r&w sel](*4) k NmlCum M NmlCum NmlL StdCum k StdCum M StdCum StdL StdCuft k StdCuft M Stdcuft

Now *** setting mode of thermometer. Please set at another menu. Process abort.

to be continued to mark<*1> in a next page

F040608_2.EPS

[u/d]<C20>

<C34>

(*1)

<C30>

*** is the parameter set up at "Thermometer/Function"

This message is indicated in case of not setting up "moniter only","Not use" at "Thermometer/Function"

N: Normal S: Standard

Page 44

4-18

IM 01F06A00-01E

4. BASIC OPERATING PROCEDURES

1 Device setup 2 PV [cr] 3 AO1 [cr] 4 Flow Span [cr] 5 Mode

4 Detailed setup

1 Characterize meter

2 PV unit

Online Menu

to be continued to next page

Nominal size[u/d] <E10>

2 Body type

[u/d]

<E20>

3 Sensor type

[u/d]

<E30>

4 K-factor setup

5 Detector No. [r&w]

[u/d]

15mm [r&w sel] 25mm 40mm 50mm 80mm 100mm 150mm 200mm 250mm 300mm 400mm

Standatd [r&w sel] High pressure Low flow unit(1) Low flow unit(2)

K-factor unit[u/d] <E40>

K-factor[r&w][u/d] <E41>

p/l [r&w sel] p/gal p/Impgal

1 Temp unit [u/d] <C30> (*5) 2 Process temp[r&w] [u/d] <C31> 3 Base temp[r&w] [u/d] <C32> 4 Pressure unit [u/d] <C33> (*7) 5

Process pressure[r&w] [u/d]

<C34> 6 Base pressure[r&w] [u/d] <C35> 7 Deviation[r&w] [u/d] <C36> 8 STD/Normal unit [u/d] <C37> (*4) 9 Time unit [u/d] <C40> (*1) 10 End

Standatd [r&w sel] High temperature Low temperature

1 Fluid[#]

[u/d]

<C20>

Special unit[#] [u/d]<D40>

Liquid:Volume Gas/Steam:Volume

Liquid:Mass Gas/Steam:Mass

Gas:STD/Normal

1 Volumetric unit [u/d] <C22> (*2) 2 Time unit [u/d] <C40> (*1) 3 End

1 Density unit [u/d] <C25> (*6) 2

Process density[r&w] [u/d]<C26> 3 Mass unit [u/d] <C27> (*3) 4 Time unit [u/d] <C40> (*1) 5 End

No Yes

1 Base unit[r] <D41> 2 User's unit[r&w] [u/d] <D42> 3

Conversion factor[r&w] [u/d]<D43> 4 End

<*1>

F040608_3.EPS

Page 45

4-19

IM 01F06A00-01E

4. BASIC OPERATING PROCEDURES

1 Device setup 2 PV [cr] 3 AO1 [cr] 4 Flow Span [cr] 5 Mode

4 Detailed setup

3 Configure outputs

4 Signal processing

Online Menu

to be continued to next page

1 Analog output

Contact output [#][u/d]

<B20>

3 Display mode

4 Totalizer

5 HART output

Blank [r&w sel] Total (Temp)

1 Set noise ratio[r&w] <K26> 2 End

1 Flow span[r&w][u/d] <B10> 2 Outlimit(H)[r&w][u/d] <D30> 3 Burn out[r] <D35>

1 TLA[r&w] [u/d] <K10> 2 Signal level[r&w] [u/d] <K20> 3

Noise balance mode [u/d]<K25>

4 Noise ratio[cr or w][u/d] <K26> 5 Maintenance data

6 Error record <K40>

7 High vibration[u/d] <K45>

8 Amplifier check

9 Menu type number 10 Menu type

PV Damp[r&w][u/d]<B15>

Low cut[r&w][u/d]<D10>

3 Temp setup

4 Density setup

5 Maintenance

1 Temp unit [u/d] <D20> (*5) 2

Process temp[r&w][u/d]<D21>

1 Pulse rate[r&w][u/d] <B21>

Off Scaled pulse Unsdcled pulse Frequency Alarm Flow SW(Low:On) Flow SW(Low:Off)

1 Frequency at 100%[r&w][u/d] <B22>

1 Setting level[r&w][u/d] <B23>

1 Upper display[u/d] <B30>

2 Lower display[u/d] <B31>

Flow rate(%) [r&w sel] Flow rate {Temp(%)}

1 Total[cr] <A30> 2 Total start/stop[u/d] <B40>

3 Total rate[r&w][u/d] <B45> 4 Total reset[w,#] <B47>

Stop [r&w sel] Start

1 Poller addr[r&w] 2 Num req preams[r] 3 Burst mode

4 Burst option

Off [r&w sel] On

PV [w sel] %range/current Process vars/crnt

1 Density unit [u/d] <D25> (*6) 2

Process density[r&w][u/d]<D26>

Auto [r&w sel] Manual Tuning at zero flow

1 Velocity[cr] <K30> 2 Span velosity[cr] <K32> 3 Vortex frequency[cr] 4 Span frequency[cr] <K36> (5 Density) <K38>

Err record reset[w,#] Er record status 1[cr] (*11) Er recprd status 2[cr] (*12) (Er record status 3[cr]) (*13)

0% [r&w sel] No action

1 Set vortex frequency[r&w] <K28> 2 End

to be continued to next page

F040608_4.EPS

<K34>

Page 46

4-20

IM 01F06A00-01E

4. BASIC OPERATING PROCEDURES

1 Device setup 2 PV [cr] 3 AO1 [cr] 4 Flow Span [cr] 5 Mode

4 Detailed setup

5 Review

4 Signal processing

5 Device information

{6 Thermometer}

Online Menu

6 Adjust

1 Process density[r&w]

[u/d]

<H26>

2 Viscosity[r&w]

[u/d]

<H27>

3 End

User adjust[r&w]

[u/d]

<H20>

Reynolds adjust[#][u/d] <H25>

Gas expansion fact

[u/d]

<H30>

Flow adjust[#]

[u/d]

<H40>

1 Manufacturer[r] 2 Tag[r&w][u/d] 3 Descriptor[r&w][u/d] 4 Message[r&w][u/d] 5 Date[r&w][u/d] 6 Write protect[r] 7 Revision numbers

1 Universal rev[r] 2 Fld dev rev[r] 3 Software rev[r] 4 Hardware rev[r] 5 Final assembly num[r] 6 Dev id[r]

Not active [r&w sel] Active

1 Mass uni

t[u/d]

<F12> (*3)

2 Time unit

[u/d]

<F35> (*1)

3 End

Not active[r&w sel] Active

Not active [r&w sel] Active

Set point 1-data[r&w]

[u/d]

<H41, H42>

Set point 2-data[r&w]

[u/d]

<H43, H44>

Set point 3-data[r&w]

[u/d]

<H45, H46>

Set point 4-data[r&w]

[u/d]

<H47, H48>

Set point 5-data[r&w]

[u/d]

<H49, H50>

6 End

1 Function[#][u/d] <F10>

2 Cable length[r&w][u/d]<F52> 3

Temp damping[r&w][u/d]<F50>

4 Analog out select[u/d] <F55>

Monitor only Saturated steam

Superheat steam

Gas:STD/Normal

Liquid:Mass

Not use

1 Pressure unit

[u/d]

<F14> (*7)

Process pressure[r&w][u/d]

<F15>

3 Mass unit

[u/d]

<F16> (*3)

4 Time unit

[u/d]

<F35> (*1)

5 End

1 Temp unit

[u/d]

<F18> (*5)

2 Base temp [r&w]

[u/d]

<F19>

3 Pressure unit

[u/d]

<F20> (*7)

Process pressure[r&w][u/d]

<F21>

5 Base pressure[r&w]

[u/d]

<F22>

6 Devition[r&w]

[u/d]

<F23>

7 STD/Normal unit

[u/d]

<F24> (*4)

8 Time unit

[u/d]

<F35> (*1)

9 End

1 Density unit

[u/d]

<F26> (*6)

2 Base density[r&w]

[u/d]

<F27>

3 Temp unit

[u/d]

<F28> (*5)

4 Base temp[r&w]

[u/d]

<F29>

5 1'st temp coeff[r&w]

[u/d]

<F30>

2'nd temp coeff[r&w][u/d]<F31>

7 Mass unit

[u/d]

<F32> (*6)

8 Time unit

[u/d]

<F35> (*1)

9 End

Flow Temp

1 Temp unit

[u/d]

<D20> (*5)

2 Temp 0%[r&w]

[u/d]

<F56>

3 Temp 100%[r&w]

[u/d]

<F57>

4 Temp error out[r&w]

[u/d]

<F58>

5 End

0% [r&w sel] Out limit[u/d](H) Process temp

Review 1[r] Review 2[r] Review 3[r] {Review 4}[r]

F040608_5.EPS

Hot Key

Flow span Wrt protect menu

Write protect Enable wrt 10min [#] New passward [#] Software seal

No,Yes

Keep,Break

Page 47

4-21

IM 01F06A00-01E

4. BASIC OPERATING PROCEDURES

F040608_6.EPS

Review 1

Model

Manufacturer

Distributor

Ta g

Descriptor

Message

Date

Dev id

Write protect

AO alrm typ

Universal rev

Fld dev rev

Software rev

Hardware rev

Poll addr

Burst mode

Burst option

Numb req preams

Review 2

Flow rate unit

Flow span

PV Damp

Contact output

Pulse rate

Frequency at 100%

Setting level

Upper display

Lower display

Total rate

Total start/stop

Fluid

Process density

Process temp

Base temp

Process pressure

Base pressure

Deviation

Low cut

Out limit (H)

Burn out

Review 3

Special unit

User’s unit

Conversion faetor

Nominal size

Body type

Sensor type

K - factor

Detector No.

User adjust

Reynolds adjust

Viscosity

Gas expansion fact

Flow adjust

TLA

Signal level

Noise balance mode

Noise ratio

Span velocity

Span frequency

Review 4

Function

Base density

1st temp coeff

2nd temp coeff

Cable length

Temp damping

Analog out select

Temp 0%

Temp 100%

Temp error out

(Only for /MV)

(*8) Status 1

Flow over output

Span set error

Pulse out over

Pulse set error

Device ID not entered

Sensor fault

Pre-amp fault

EEPROM fault

(*9) Status 2

Tr ansient noise

High vibration

Clogging

Fluctuating

(*10) Status 3

Temp over output

Over temp

Temp sensor fault

Temp conv. fault

(Only for /MV)

(*8) Status 1

Flow over output

Span set error

Pulse out over

Pulse set error

Device ID not entered

Sensor fault

Pre-amp fault

EEPROM fault

(*9) Status 2

Tr ansient noise

High vibration

Clogging

Fluctuating

(*10) Status 3

Temp over output

Over temp

Temp sensor fault

Temp conv. fault

(Only for /MV)

(*11)

Er record status

Flow over output

Span set error

Pulse out over

Pulse set error

Sensor fault

Pre-amp fault

EEPROM fault

(*12)

Er record status

Tr ansient noise

High vibration

Clogging

Fluctuating

(*13)

Er record status

Temp over output

Over temp

Temp sensor fault

Temp conv. fault

(Only for /MV)

Page 48

5-1

IM 01F06A00-01E

5. PARAMETER SETUP

5.1 Parameter Setup

The parameters are set before factory shipment. Set the

required parameter of changing fluid, contact out and

indication of display.

5.2 Multi-Variable Type Parameter (Only for /MV)

Parameter item F is indicated when /MV is selected.

The parameters are set before factory shipment, but it is

necessary to set the analog output of temperature, span of

temperature output.

IMPORTANT

For the remote type, be sure to set the cable length (F52) for DYA, remote type converter, because of effect of the cable length.

5.3 Parameters List

This section describes the parameter of digitalYEWFLO.

• Contents of parameter lists.

T050301.EPS

Item

Parameter number

Name

R / W (Read and write)

Data range

Unit

Remarks

Disp.

U / D

Initial value

Parameter item number.

Parameter name.

Indicates parameter attributes. R : Display only (writing is not permitted). W : Writing is permitted.

Shows data setting ranges for numerical value entry. Shows data to be selected for data selection. ( ) in parentheses, data code is shown for the display.

Engineering unit.

Remarks such as a description of the contents are given.

D : Display can set parameter.

L : Parameter can be set by UP LOAD and

DOWN LOAD. (Check all parameters after setting by DOWN LOAD.)

Indicates the initial set values.

Description

5. PARAMETER SETUP

Page 49

5-2

IM 01F06A00-01E

5. PARAMETER SETUP

(1) Item A : Indication

These items are for the indication of flowrate and total.

T050302.EPS

(Indicate only within Temperature sensor)

(Indicate only for Temperature sensor)

A00 A10 A20 A30

A40

A41 A60

R R R

R R

FU+C40

D20

DISPLAY FLOW RATE(%) FLOW RATE TOTAL

TEMP(%)(*1)

TEMPERATURE(*1) SELF CHECK

0.0 to 110.0

0.0 to 65535 0 to 999999

0.0 to 110.0

–999.9 to 999.9 GOOD ERROR

Menu A (Display) Flow rate Flow rate (in engineering unit) Totalized value

Temperature Values (%)

Temperature Values Self-diagnostic message

Item Name R / W Data Range Unit

1 0 to 5 0 to 5

Decimal

point

Remark

Initial value

Disp. U / D

FU : Flow unit (*1): Only for Option Code /MV

(2) Item B : Easy Setting

These items are for the principal items to operate digitalYEWFLO.

T050303.EPS

B00

B10

B15

B20

B21

B22

B23

B30

B31

B40

B45

B47

B50

B51

B60

FU + C40

sec

FU / P

PPS

FU +C40

(1)

FU / P

D20

(0)

1.0

1000

(0)

1.0

(0)

-40

260

EASY SETUP

FLOW SPAN

DAMPING

CONTACT OUT

(Indicate and Set only for B20 : SCALED PULSE, UNSCALED PULSE)

PULSE RATE

(Indicate and Set only for B20 :FREQUENCY)

FREQ AT 100%

(Indicate and Set only for B20 :FLOW SW (ON), FLOW SW (OFF))

SET LEVEL

UPPER DISP

LOWER DISP

TOTAL START

TOTAL RATE

TOTAL RESET

(Indicate and Set only for Option code /MV)

A / OUT SELECT

(Indicate and Set only for B50: TEMP)

TEMP 0%

TEMP 100%

SELF CHECK

0.00001 to 32000

0 to 99

OFF (0) SCALED PULSE (1) UNSCALED PULSE (2) FREQUENCY (3) ALARM (4) FLOW SW(LOW:ON) (5) FLOW SW(LOW:OFF) (6)

0.00001 to 32000

0 to 10000

0.00001 to 32000

FLOW RATE (%) (0) FLOW RATE (1) TEMP(%)(*1)

BLANK (0) TOTAL (1) TEMP(*1)

STOP (0) START (1)

0.00001 to 32000 (0)

NOT EXECUTE (0) EXECUTE (1)

FLOW (0) TEMP (1)

-999.9 to 999.9

GOOD

ERROR

Menu B

Flow Span

Damping Time

Contact Output Type

Pulse Output Rate

Pulse Output Rate at sec / 100%

Flow Switch (Actual Flow rate)

Selection of Upper Display

Selection of Lower Display

Start / Stop of Totalizer

Total Rate

Totalizer Reset

Selection of Analog Output

Set Temperature Value at 0%

Set Temperature Value at 100%

Self-diagnostic message

Item Name R / W Data Range Unit

0 to 5

(1)

0 to 5

Decimal

point

Remark

Initial value

Disp. U / D

FU : Flow unit (*1) : Only for Option Code /MV

A value in “( )” is the data corresponding to the indicator.

B52

Page 50

5-3

IM 01F06A00-01E

5. PARAMETER SETUP

(3) Item C : BASIC SETUP

These items are for the basic parameters with setting before shipment.

The parameters, C20 to C50, are not indicated when option code “/MV” is selected and parameter item is selected in F10 except

“Monitor only” or “Not use”.

T050304.EPS

C00 C10 C20

C22

C25

C26 C27

C30

C31

C32 C33

C34

C35 C36 C37

C40

C45 C50 C60

W W

W W W

W W

C25

C30

C33

FU+C40

sec

0 to 5

(0)

1024

(0)

15.0

15.0 (0)

0.1013

1.0 (0)

(2)

D D

D D D

D D

L L

L L L

L L

BASIC SETUP TAG NO. FLUID

(Indicate and Set only for C20 : LIQUID : Volume, GAS / STEAM : Volume)

VOLUME UNIT

(Indicate and Set only for C20 : LIQUID : MASS, GAS / STEAM : MASS)

DENSITY UNIT

DENSITY f MASS UNIT

(Indicate and Set only for C20 : GAS : STD / Normal)

TEMP UNIT

TEMP f

TEMP b PRESS UNIT

PRESS f

PRESS b DEVIATION STD/NOR UNIT

TIME UNIT

FLOW SPAN DAMPING SELF CHECK

16 characters LIQUID:Volume (0) GAS/STEAM:Volume (1) LIQUID:Mass (2) GAS/STEAM:Mass (3) GAS:STD/Normal (4)

(0)

k m

(1) l (2) cf (3) m cf (4) k cf (5) USgal (6) k USgal (7) UKgal (8) k UKgal (9) bbl (10) m bbl (11) k bbl (12)

kg/m

(0) lb/c f (1) lb/USgal (2) lb/UKgal (3)

0.00001 to 32000 kg (0) t (1) lb (2) k lb (3)

deg C (0) deg F (1)

-999.9 to 999.9

-999.9 to 999.9 MPa abs (0) kPa abs (1) bar abs (2) kg/cm

a (3)

psia (4)

0.00001 to 32000

0.001 to 10.0 Nm

(0) k Nm

(1) M Nm

(2) Nl (3) Sm

(4)

k Sm

(5) M Sm

(6) Sl (7) scf (8) k scf (9) M scf (10) /s (0) /m (1) /h (2) /d (3)

0.00001 to 32000 0 to 99 GOOD ERROR

Menu C (Meter characterize) Tag Number Selection of FLUID type

Selection of Flow Units for Flow Rate

Selection of Density Unit

Operating Density (Manual Setting Value) Selection of Mass Flow Unit

Selection of Temperature Unit

Operating Temperature (Manual Setting Value)

Standard / Normal Temperature Selection of Pressure Unit

Absolute Pressure at Operating Condition (Manual Setting Value)

Absolute Pressure at Standard Condition Deviation Factor Selection of Volumetric Unit at Normal Condition N: Normal S: Standard

Selection of Time Unit

Flow Span Damping Time Self-diagnostic message

Item Name R / W Data Range Unit

Decimal

point

Remark

Initial value

Disp. U / D

FU : Flow unit (*1) : Only for Option Code /MV

A value in “( )” is the data corresponding to the indicator.

Page 51

5-4

IM 01F06A00-01E

5. PARAMETER SETUP

(4) Item D : Additional Setup

These items are for Auxiliary Setup.

T050305.EPS

D00 D10

D20

D21 D25

D26 D30 D35

D40

D41

D42 D43 D60

W W

FU + C40

D20

D25

0 to 5

(0)

15.0 (0)

1024

110.0 (0)

(0)

1.0

D D

D D D

L L

L L L

AUX. SETUP LOW CUT

TEMP UNIT

TEMP f DENSITY UNIT

DENSITY f OUT LIMIT (H) BURN OUT

SPECIAL UNIT

(Indication and set only for D40 : Yes)

BASE UNIT

USER’S UNIT CONV FACTOR SELF CHECK

∗ to 32000

deg C (0) deg F (1)

-999.9 to 999.9 kg/m

(0) lb/cf (1) lb/USgal (2) lb/UKgal (3)

0.00001 to 32000

100.0 to 110.0 High (0) Low (1) No (0) Yes (1)

(0) k m

(1) l (2) cf (3) m cf (4) k cf (5) USgal (6) kUSgal (7) UKgal (8) kUKgal (9) bbl (10) m bbl (11) k bbl (12) kg (13) t (14) lb (15) k lb (16) Nm

(17)

k Nm

(18)

M Nm

(19) NI (20) Sm

(21) k Sm

(22) M Sm

(23) SI (24) scf (25) k scf (26) M scf (27) 8 characters

0.00001 to 32000 GOOD

ERROR

Menu D (Additinal Setup) Low Cut Flow rate ∗Minimum Flow rate / 2 Selection of Temperature Unit

Operating Temperature (Manual Setting Value) Selection of Density Unit

Operating Density (Manual Setting Value) Upper Limit Value Output Direction at Burn Out

Selection of change for Special Flow Unit

Basic unit for conversion to special unit N: Normal S: Standard

User’s unit Coefficient for conversion to special unit Self-diagnostic message

Item Name R / W Data Range Unit Remark

Initial value

Decimal

point

Disp. U / D

FU : Flow unit

A value in “( )” is the data corresponding to the indicator.

Page 52

5-5

IM 01F06A00-01E

5. PARAMETER SETUP

(5) Item E : Detector Setup

These items are for detector that has been already set before.

T050306.EPS

E00 E10

E20

E30

E40

E41 E50 E60

W W

E40 0 to 5

(1)

(0)

68.6

METER SETUP NOMINAL SIZE

BODY TYPE

SENSOR TYPE

K-FACT UNIT

K-FACTOR DETECTOR No. SELF CHECK

15mm (0) 25mm (1) 40mm (2) 50mm (3) 80mm (4) 100mm (5) 150mm (6) 200mm (7) 250mm (8) 300mm (9)

-------- (10) Standard (0) High Pressure (1) Low Flow Unit (1)

(2)

Low Flow Unit (2)

(3)

-------- ( 1 ) Standard (0) High Temperature

(1)

Low Temperature

(2) P/l (0) P/Usgal (1) P/Ukgal (2)

0.00001 to 32000

16 characters

GOOD ERROR

Menu E (Detector setup) Selection of Nominal Size

Selection of Body Type

Selection of Sensor Type

Selection of K-factor Unit

K-factor value of 15 deg C Detector number Self-diagnostic message

Item Name R / W Data Range Unit Remark

Initial value

Disp. U / D

Decimal

point

FU : Flow unit

A value in “( )” is the data corresponding to the indicator.

Page 53

5-6

IM 01F06A00-01E

5. PARAMETER SETUP

(6) Item F: Thermometer (Only for Option Code /MV)

These items is for thermometer setting when.

Data Range

F00 F10

F12

F14

F15 F16

F18

F19 F20

F21 F22 F23 F24

F26

F27 F28

F29 F30 F31 F32

F35

F40 F45 F50 F52 F55

F56 F57 F58

F60

W W

W W W W W W W W W W

W W

W W W W

W W W W W

W W W

F14

F18

F20 F20

F26

F28

1/F28

1/F28ˆ2

FU+35

sec sec

D20 D20

0 to 5

0 to 5 0 to 5

0 to 5

1 0 to 5 0 to 5

0 to 5

(0)

0.1013 (0)

(0)

15.0 (0)

0.1013

1.0 (0)

(0)

1024

(0)

15.0 0 0

(0)

0.5 4 4 0

(0)

-40

260

D D

D D D D

D D

D D D D

D D D D D

D D D

L L

L L L L

L L

L L L L

L L L L L

L L L

THERMOMETER Function

(Indicate and set only for F10: Saturated Stem) MASS UNIT

(Indicate and set only for F10: Superheat Steam) PRSS UNIT

PRESS f MASS UNIT

(Indicate and set only for F10: GAS STD/Normal) TEMP UNIT

TEMP b PRESS UNIT

PRESS f PRESS b DEVIATION STD/NOR UNIT

(Indicate and set only for F10: Liquid: Mass) DENSITY UNIT

DENSITY b TEMP UNIT

TEMP b 1st coef 2nd coef MASS UNIT

TIME UNIT

FLOW SPAN DAMPING TEMP DAMPING CABLE LENGTH A/OUT SELECT

(Indicate and set only for F55: TEMP) TEMP 0% TEMP 100% TEMP ERR OUT

SELF CHECK

Monitor only (0) Saturated Steam (1) Superheat Steam (2) GAS: STD/Normal (3) LIQUID: Mass (4) Not use (5)

kg (0) t (1) Ib (2) k Ib (3)

MPa abs (0) kPa abs (1) bar abs (2) kg/cm2 a (3) psia (4)

0.00001 to 32000 kg (0) t (1) Ib (2) k Ib (3)

deg C (0) deg F (1)

-999.9 to 999.9 MPa abs (0) kPa abs (1) bar abs (2) kg/cm2 a (3) psia (4)

0.00001 to 32000

0.001 to 10.000 Nm3 (0) k Nm3 (1) M Nm3 (2) NI (3) Sm3 (4) k Sm3 (5) M Sm3 (6) SI (7) scf (8) k scf (9) M scf (10)

kg/m3 (0) Ib/cf (1) Ib/USgal (2) Ib/UKgal (3)

0.00001 to 32000 deg C (0) deg F (1)

-999.9 to 999.9

-32000 to 32000

-32000 to 32000 kg (0) t (1) Ib (2) k Ib (3) /s (0) /m (1) /h (2) /d (3)

0.00001 to 32000 0 to 99 0 to 99 0 to 30 FLOW (0) TEMP (1)

-999.9 to 999.9

-999.9 to 999.9 0% (0) OUT LIMIT(H) (1) TEMP f (2) GOOD ERROR

Menu F (Thermometer function) Select thermometer function. (Move to F40 when “Monitor only” is selected) (Move to F60 when “Not Use” is selected)

Selection of mass flow rate unit

Selection of pressure unit

Absolute pressure at operating condition(Manual setting vaiue) Selection of mass flow rate unit

Selection of temperature unit

Standard/Normal temperature Selection of temperture unit

Absolute pressure at operating condition(Manual setting value) Absolute pressure at Standard condition Deviation factor Selection of volumetric unit at normal condition N: Normal

S: Standard

Selection of density unit

Density of standard condition Selection of temperature unit

Temperature of standard condition 1st temperature coefficient 2nd temperature coefficient Selection of mass flow rate unit

Selection of time unit

Flow span Damping Damping for temperture output Cable length for signal cable (0m in case of integral version) Selection of analog output

Temperture value at 0% Temperture value at 100% Selection of themometer error output when “F55: TEMP” is selected (A value of OUT LIMIT(H) depend on D30)

Self-diagnostic message

Item R / W

Name

Remark

A Value in “( )” is the data corresponding to the indicator.

(*1) When “K50 : SOFTWARE REV” is “3.10”, it can be available.

U/D

Disp

Initial Value

Decimal Point

Unit

T050307.EPS

Page 54

5-7

IM 01F06A00-01E

5. PARAMETER SETUP

(7) Item H : Adjust.

These items are for setting of adjustment.

T050308.EPS

H00 H10 H11 H20 H25

H26 H27 H30

H40

H41 H42 H43 H44 H45 H46 H47 H48 H49 H50 H60

W W W W

W W W

W W W W W W W W W W

% %

D25

mPa.s

2 2

0 to 5

0 to 5 0 to 5

0 to 5

0.0

1.0 (0)

1024

1.0 (0)

(0)

0.0

D D D D

D D D

D D D D D D D D D D

ADJUST TRIM 4mA TRIM 20mA USER ADJUST REYNOLDS ADJ

(Indicator and Set only H25 : Active)

DENSITY f VISCOSITY EXPANSION FA

FLOW ADJUST

(Indicator and Set only H40 : Active)

FREQUENCY 1 DATA 1 FREQUENCY 2 DATA 2 FREQUENCY 3 DATA 3 FREQUENCY 4 DATA 4 FREQUENCY 5 DATA 5 SELF CHECK

-1.00 to 1.00

0.00001 to 32000 NOT ACTIVE (0) ACTIVE (1)

0.00001 to 32000

0.00001 to 32000 NOT ACTIVE (0) ACTIVE (1) NOT ACTIVE (0) ACTIVE (1)

0 to 32000

-50.00 to 50.00 0 to 32000

-50.00 to 50.00 GOOD

ERROR

Menu H (Adjust) Trimming 4mA Trimming 20mA User Adjust Reynolds Coefficient

Density at operating condition Viscosity factor Expansion correction for compressible Gas

Instrumental Error Adjust

First break-point frequency (f1) First correcting value (d1) Second break-point frequency (f2) Second correcting value (d2) Third break-point frequency (f3) Third correcting value (d3) Fourth break-point frequency (f4) Fourth correcting value (d4) Fifth break-point frequency (f5) Fifth correcting value (d5) Self-diagnostic message

Item Name R / W Data Range Unit

Decimal

Point

Remark

Initial value

Disp. U / D

A value in “( )” is the data corresponding to the indicator.

(8) Item J : Test

These items are for test of output.

T050309.EPS

J00 J10 J20 J30

J60

W W W

PPS

0.0

(0)

D D D

TEST OUT ANALOG OUT PULSE OUT STATUS

SELF CHECK

0.0 to 110.0 0 to 10000 OFF (0) ON (1) GOOD

ERROR

Menu J (Test) Current Output Pulse Output Status Output

Self-diagnostic message

Item Name R / W Data Range Unit

1 0

Decimal

Point

Remark

Initial value

Disp. U / D

A value in “( )” is the data corresponding to the indicator.

Page 55

5-8

IM 01F06A00-01E

5. PARAMETER SETUP

(9) Item K : Maintenance

These items are for maintenance.

T050310.EPS

K00

K10

K20

K25

K26

K28

K30

K32

K34

K36

K38

K40

K45

K50

K60

R / W

m/s

D25

0 to 5

1.0

(0)

MAINTENANCE

TLA

SIGNAL LEVEL

N.B. MODE

NOISE RATIO

SET VORTEX F

VELOCITY

SPAN V

VORTEX FREQ.

SPAN F

DENSITY

ERROR RECORD

H VIBRATION

SOFTWARE REV

SELF CHECK

0.1 to 20.0

AUTO (0) MANUAL (1) TUNING AT ZERO

(2)

0.00 to 2.00

0 to 10000

0.00001 to 32000

0% (0) NO ACTION (1)

0.01 to 99.99 GOOD

ERROR

Menu K (Maintenance)

Trigger Level Adjust

Signal Level

Selection of Noise balance Mode

Output test by setting simulated frequency.(*2)

Velocity

Span velocity

Vortex frequency

Span frequency

Density value (Calculated by Thermometer)

Error Records

Selection of Output Function when “High

Vibration” error is indicated.

Software Revision Number

Self-diagnostic message

Item Name R / W Data Range Unit Remark

Initial value

Decimal

Point

Disp. U / D

(Indicate only for F10: “Saturated Steam” or “Super heat steam” or “Liquid mass)(*1)

(*1) Only for Option Code /MV (*2) Available for 5.10 or greater version that can be checked in K50 SOFTWARE REV.

(10) Item M : Memo

These items are for Memorandum.

T050311.EPS

M00

M10

M20

M30

M60

MEMO

MEMO 1

MEMO 2

MEMO 3

SELF CHECK

16 characters

GOOD ERROR

Menu M (Memo)

Memorandum 1 (16 characters)

Memorandum 2 (16 characters)

Memorandum 3 (16 characters)

Self-diagnostic message

Item Name R / W Data Range Unit

Decimal

Point

Remark

Initial value

Disp. U / D

Page 56

5-9

IM 01F06A00-01E

5. PARAMETER SETUP

5.4 Parameter Description

(1) Item A : Display

These items are for the indication of flowrate and total.

[A10:FLOW RATE(%)] Flow rate

Flowrate is displayed by “%” to span value.

[A20:FLOW RATE] Flow rate (Engineering unit)

Flowrate is displayed by engineering unit.

[A30:TOTAL] Total value

Total value of flowrate is displayed

The following item should be done in case of

which Option code /MV is selected and analog output is “Temperature”.

[A40:TEMP(%)] Temperature value

The measured temperature value is displayed by “%” to span

value of temperature.

The following item should be done in case of

which Option code /MV is selected.

[A41:TEMPERATURE] Temperature value

The measured temperature value is displayed by engineering

unit.

(2) Item B : Easy Setting

These items are for the Principal items to operate

digitalYEWFLO.

A value in “( )” is the data corresponding to indicator.

[B10:FLOW SPAN] Flowrate span

Set the required span with a numerical.

NOTE

A span setting is available up to 1.5 times of the maximum flow velocity. However, range of measurable flow velocity is as described in Table

9.5.2.

[B15:DAMPING] Damping time constant

Set damping time constant values from 0s to 99sec.

[B20:CONTACT OUT] Contact output

Select contact output.

T050401.EPS

OFF (0)

SCALED PULSE

(1)

UNSCALED PULSE (2)

FREQUENCY

(3)

ALARM (4)

FLOW SW

(LOW:ON)

(5)

FLOW SW

(LOW:OFF)

(6)

Scaled pulse output: Refer to “B21”

Unscaled pulse output: Refer to “B21”

Frequency output: Refer to “B22”

Alarm output: The status goes from close

to open (OFF) during alarming.

Refer to 5.5 Error Code Lists.

Status output: Refer to “B23”

Item Description

[B21:PULSE RATE] Pulse output rate

Set output rate in a selection of SCALED PULSE or

UNSCALED PULSE.

SCALED PULSE OUTPUT:

When SCALED PULSE is selected in B20, set flowrate per

one pulse output. Rate unit is linking to the flow unit.

UNSCALED PULSE OUTPUT:

When UNSCALED PULSE is selected in B20, it output

number of vortex (vortex frequency) as a pulse-number,

which is detected from vortex shedder bar. (1.0 must be set

for this.)

The formula for output pulse number is as follows.

Output pulse number per one second = vortex number per

one second / PULSE RATE set number. Refer to 6.1.5 Unit

of Pulse Output (Scaling).

Page 57

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IM 01F06A00-01E

5. PARAMETER SETUP

[B22:100% FREQ] Pulse numbers of 100% at

one second

Set pulse number at 100% for one second when “FRE-

QUENCY” in B20 is selected.

F050401.EPS

Pulse numbers (PPS)

T=1s

[B23:SET LEVEL] Level of flow switch

Set level of flow switch when “FLOW SW” in B20 is

selected. The contact output is sent out when the flowrate is

less than the set comparison level.

Output

(%)

Setting Value

10% Hysteresis

Contact Output ON : FLOW SW (LOW : ON)

Contact Output OFF : FLOW SW (LOW : OFF)

F050402.EPS

[B30:UPPER DISP] Upper indicator display

Select upper display, Flow rate (%) (0), Flowrate (1),

TEMP(%)(2). “TEMP(%)” can be selected when Option

Code

/MV.

[B31:LOWER DISP] Lower indicator display

Select lower indicator display, “BLANK (0), TOTAL (1),

TEMP(2). When “BLANK” in B31 is selected, indicator is

blank. “TEMP” can be selected when Option Code

/MV.

[B40:TOTAL START]

Select the START/STOP of totalizer from “STOP (0),

START (1).”

[B45:TOTAL RATE] Total rate of the totalizer

Set the total rate of the totalizer.

[B47:TOTAL RESET] Reset the totalizer

When totalizer reset function is executed, the total display

and communication parameter are reset.

The following items should be done in case of

which Option code “/MV” is selected.

[B50 A/OUT SELECT] Analog Output select

Select the analog output select from flow rate or temperature.

When changing the analog output, UPPER DISPLAY can be

changed shown as below automatically.

B50 : A/OUT SELECT

“TEMP” TO “FLOW” “FLOW” TO “TEMP”

UPPER DISPLAY

FLOW(%) TEMP(%)

(“B30 : UPPER DISPLAY” is “FLOW RATE”, it can not be changed.)

T050402.EPS

The following item should be done in case of

which B50 is “TEMP”

[B51 TEMP 0%]

Set temperature value of 0% output.

[B52 TEMP 100%]

Set temperature valve of 100% output.

Page 58

5-11

IM 01F06A00-01E

5. PARAMETER SETUP

(3) Item C : BASIC SETUP

These items are for the basic parameters with setting before

shipment.

The parameters which are set in B are not necessary to set in

A value in “( )” is the data corresponding to indicator.

The parameters, C20 to C50, are not indicated

when option code “/MV” is selected and parameter item is selected in F10 except “Monitor only” or “Not Use”.

[C10: TAG NO] Tag. No

Set Tag. No. (16 characters)

Available characters are as follows.

ABCDEFGHIJKLMNOPQRSTUVWXYZa bcdefghijklmnopqrstuvwxyz01234567

89.SPACE /-,+

)(’&%$#“!

[C20:FLUID] Flowrate unit

Set the flowrate unit below.

T050403.EPS

LIQUID : Volume (0)

GAS/STEAM : Volume

(1)

LIQUID : Mass (2)

GAS/STEAM : Mass

(3)

GAS : STD/Normal (4)

Volumetric flow of Iiquid measuring

Volumetric flow of gas or steam measuring

Mass flow of liquid measuring

Mass flow of gas or steam measuring

Volumetric flow at Standard condition

Item Description

The following items should be done in case of

which “C20” is “LIQUID : Volume” or “GAS/ STEAM : Volume”.

[C22:VOLUME UNIT] Volumetric unit

Select the unit of volumetric flow from m3(0), km3(1), l(2),

cf(3), mcf(4), def(5), USgal(6), kUKgal(9), bbl(10),

mbbl(11), kbbl(12).

The following items should be done in case of

which “C20” is “LIQUID: Mass” or “GAS/ STEAM : Mass”

[C25:DENSITY UNIT] Density Unit of Flow

measurement

Select the unit of density from kg/m3(0), lb(1), lb/USgal(2),

lb/UKgal(3).

[C26:DENSITY f] Density at normal operation

conditions

Set the density value of the fluid at operating condition for

mass flow unit.

[C27:MASS UNIT] Mass flowrate unit

Select the mass flowrate unit from kg(0), t(1), lb(2), k lb(3).

The following item should be done in case of

which “C20” is “GAS/STEAM : Volume”.

[C30:TEMP UNIT] Fluid temperature unit at

operating conditions

Select temperature unit at operating condition from

“degC (0), degF (1)”.

[C31:TEMP f] Fluid temperature at operating

conditions

Set fluid temperature at operating condition.

Range is -196 to 450°C

The following items should be done in case of

which “C20” is “GAS/STD : Normal”.

[C32:TEMP b] Fluid temperature at standard/

normal conditions

Set the values of Fluid temperature at standard condition.

[C33:PRESS UNIT] Pressure unit

Select the unit of pressure from “MPa abs(0), kPa abs(1), kg/

cm2 abs(2), bar abs(3)”.

[C34:PRESS f] Absolute pressure at operating

conditions

Set the absolute pressure at operating condition.

[C35:PRESS b] Absolute pressure at standard/

normal condition

Set the absolute pressure at normal condition.

[C36:DEVIATION] Deviation factor

Set deviation factor.

[C37:STD/NOR UNIT] Volumetric unit at normal

conditions

Select volumetric unit at normal condition from Nm3(0),

kNm

(1), MNm3(2), Nl(3), Sm3(4), Km3(5), Mm3(6), Sl(7),

scf(8), kscf(9), Mscf(10).

N: Normal

S: Standard

[C40:TIME UNIT] TIME UNIT

Select time unit from “/s(0), /m(1), /h(2), d(3)”

[C45:FLOW SPAN] Flowrate span

Set the required span with a numerical value.

[C50:DAMPING] Damping time constant

Set damping time constant values from 0 to 99s.

Page 59

5-12

IM 01F06A00-01E

5. PARAMETER SETUP

(4) Item D (AUX SETUP)

These items are for Auxiliary setup.

A value in “( )” is the data corresponding to indicator.

[D10:LOW CUT] Low-cut flowrate

NOTE

For D10 setting, be sure to set “NOMINAL SIZE” in E10 firstly.

Set to noise elimination or zero flow in the low flowrate (or

low frequency) range. The settable range for low cut flowrate

is more than half-minimum flowrate.

NOTE

In case that D10: LOW CUT and item H (ADJUST) are necessary to set, change all appropriate parameters of item H before setting D10.

[D20:TEMP UNIT] Fluid temperature unit at

operating conditions

Select temperature unit at operating condition from

“degC (0), degF (1)”.

[D21:TEMP f] Fluid temperature at operating

conditions

Set fluid temperature at operating condition.

Range is -196 to 450°C

[D25:DENSITY UNIT] Density Unit of Flow

measurement

Select the unit of density from kg/m3(0), lb(1), lb/USgal(2),

lb/UKgal(3).

[D26:DENSITY f] Density at normal operation

conditions

Set the density value of the fluid at operating condition for

mass flow unit

[D30:OUT LIMIT] Limit value of output and

indication

Set limit value of output from 100.0% to 110.0%

[D35:BURN OUT] Indication of the output

direction at burn out

This is indication of the output direction at burn out. Refer to

“6.1.6 Burn out” when the output direction can be changed.

[D40:SPECIAL UNIT] Change to special

flowrate unit

Select the availability of changing to special flowrate Unit

from “No(0)” or “Yes(1)”

[D41:BASE UNIT] Indication of the special

flowrate unit

Indication of the basic flowrate unit when item D40 is

“Yes(1)”

[D42:USER'S UNIT] Free unit for users

Set in up to 8 alphanumeric characters when item D40 is

“Yes(1)”

Page 60

5-13

IM 01F06A00-01E

5. PARAMETER SETUP

(5) Item E (METER SETUP)

These items are for detector set up that has already been set

before shipment.

A value in “( )” is the data corresponding to indicator.

[E10:NOMINAL SIZE] Nominal size of the

detector

Select the nominal size of the flowmeter, from “15mm(0),

25mm(1), 40mm(2), 50mm(3), 80mm(4), 100mm(5),

150mm(6), 200mm(7), 250mm(8), 300mm(9)”

[E20:BODY TYPE] Body type for the detector

Select body type for detector from standard or high pressure.

Standard (0) : Standard type

High Pressure (1) : High Pressure type (tokuchu)

Low Flow Unit (1) (2) : Reduced Bore type (option : /R1)

Low Flow Unit (2) (3) : Reduced Bore type (option : /R2)

NOTE

Parameter setting for the Reduced Bore type, Select Low Flow Unit (1) or (2) and set. Set nominal size of the model code to E10: NOMINAL SIZE.

[E30:SENSOR TYPE] Sensor type for the

detector

Select sensor type for the detector.

Standard (0) : Standard type

High Temperature (1) : Option /HT

Low Temperature (2) : Option /LT

[E40:K-FACTOR UNIT],

Select this unit from p/l, p/Usgal, p/Ukgal.

IMPORTANT

K-FACTOR is the eigenvalue of each detector. Please keep the factory preset value. NEVER REWRITE IT. (Unless the replacement of the remote type detector.)

[E41:K-FACTOR]

The flowmeter data plate includes a K-factor (KM) at 15°C

for the combined detector.

[E50:DETECTOR NO.] Detector number of

flowmeter

Set the serial number using 16 alphanumeric characters of the

detector combined converter.

(6) ltem F (Thermometer)

These items are for setting of thermometer and available

when build in thermometer type (Option code: /MV).

[F10: Function] Thermometer function

Select the thermometer function.

Monitor only(0): Only temperature measurement.

Saturated Steam: Mass Flow rate is calculated from density

values by temperature measurement

using saturated steam table.

Superheat Steam: Mass Flow rate is calculated from density

values by temperature measured by using

steam table. In order to measure

superheat steam. It is necessary to make

constant pressure value.

GAS: STD/Normal: Volumetric flow rate at standard

condition is calculated by using Pressure-

Temperature correction. It is necessary to

male constant pressure value.

Liquid: Mass: Mass flow rate is calculated by using the

density change values depend on

temperature values by which the

secondary order function is used.

The following item should be done in case of which F10 is Saturated steam

[F12 MASS UNlT] Mass flow unit

Select mass rate unit from kg(0), t(1), lb(2), k lb(3).

The following items should be done in case of which F10 is Superheat steam

[F14 PRESS UNIT] Pressure unit

Select pressure unit from MPa abs(0), kPa abs(1), bar abs(2),

kg/cm

a(3), psia(4).

[F15 PRESS f] Pressure value

Set absolute pressure values at operating condition.

[F16 MASS UNIT] Mass flow unit

Select mass flow unit from kg(0), t(1), lb(2), k lb(3).

The following items should be done in case of which F10 is

GAS: STD/Normal

[F18 TEMP UNIT] Temperature unit

Select temperature unit from deg C(0), deg F (1).

[F19 TEMP b] Temperature b

Set temperature value at normal/standard condition.

Page 61

5-14

IM 01F06A00-01E

5. PARAMETER SETUP

[F20 PRESS UNIT] Pressure unit

Select pressure unit from MPa abs(0), kPa abs(1), bar abs(2),

kg/cm

a(3), psia(4).

[F21 PRESS f] Pressure value f

Set absolute pressure values at operating condition.

[F22 PRESS b] Pressure value b

Set absolute pressure values at normal/standard Condition.

[F23 DAVIATION] Daviation factor

Set the daviation factor.

[F24 STD/NOR UNIT] Standard/Normal unit

Select Volumetric unit at standard/normal condition From

Nm3(0), k Nm3(1), M Nm3(2), Nl(3), Sm3(4)

k Sm3(5), M Sm3(6), Sl(7), scf(8), k scf(9), M scf(10)

N: Normal

S: Standard

The following item should be done in case of which F10 is LIQUID:MASS

[F26 DENSITY UNIT] Density unit

Select density unit from kg/m3(0), lb/cf(1), lb/Usgal(2), lb/

Ukgal(3).

[F27 DENSlTY b] Density b

Set density value at standard condition.

[F28 TEMP UNIT] Temperature unit

Select temperature unit from deg C(0), deg F(1).

[F29 TEMP b] Temperature b

Set temperature value at standard condition

[F30 1st coef] 1st coefficient

Set lst temperature coefficient using the density correction.

[F31 2nd coef] 2nd coefficient

Set lst temperature coefficient using the density correction.

[F32 MASS UNIT] Mass unit

Select mass flow rate unit from kg(0), t(1), lb(2), k lb(3).

[F35 TIME UNIT] Time unit

Select time unit from /s(0), /m(1), /h(2), /d(3).

[F40 FLOW SPAN] Flow span

Set span flow rate, 0 to 32000.

[F45 DAMPING] Flow damping

Set flow damping, 0 to 99sec.

[F50 TEMP DAMPING] Temperature damping

Set temperature damping, 0 to 99sec.

[F52 CABLE LENGTH] Cable length of signal

cable(DYC)

Set cable length(m) of signal cable for DYA.

When type of model is integral, cable length is set in 0m.

IMPORTANT

Be sure to set this parameter to correct temperature measurement error, occured by cable length.

[F55 A/OUT SELECT] Analog out select

Select the analog output from FLOW(0), TEMP(1).

The following item should be done in case of which F55 is TEMP

[F56 TEMP 0%] Temperature at 0%

Set temperature value at 0%.

[F57 TEMP 100%] Temperature at 100%

Set temperature value at 100%.

[F58 TEMP ERR OUT] Output selection of

thermometer error

Select output function when thermometer error from 0%(0),

OUTLIMIT(H)(1), TEMP f.

In case of OUT LIMIT(H), it is based on parameter “D30”

Page 62

5-15

IM 01F06A00-01E

5. PARAMETER SETUP

(7) Item H (ADJUST)

This item for setting of adjustment.

NOTE

In case that item H (ADJUST) and D10: LOW CUT are necessary to set, change all appropriate parameters of item H before setting D10.

[H10, H11:TRIM 4mA, TRIM 20mA] Triming of

4mA and 20mA

Fine tuning adjustment of 4mA and 20mA output.

Fine tuning range is form -1.00% to 1.00%.

[H20:USER ADJUST] Conversion factor for

user setting.

Set conversion factor by user.

This conversion factor is converted into measurement

flowrate.

[H25:REYNOLDS ADJ] Reynolds adjustment

Select the Reynolds adjustment.

This adjustment should be done in case of their error

compensation, because error of vortex flowmeter should be

increased when it come to low reynolds numbers.

The following item should be done in case of

which “H25” is “ACTIVE”.

[H26:DENSITY f]

Set the density at operating condition.

[H27:VISCOSITY]

Set the value of density and viscosity at standard conditions.

These values should be used for Reynolds adjustment.

Reynolds number(Re) is calculated as shown in the formula

below.

Q · ρf

Re = 354 ×

D · v

Q:Volumetric flow (m

/h)

D:Internal diameter (m)

ρf:Density at operating condition

µ : Viscosity (m Pa · s (cp))

Flowrate error of vortex flowmeter increases as Reynolds

number decrease less than 20000.

By setting H25, H26, H27, it corrects the error.

[H30:EXPANSION FA] Gas expansion correc-

tion.

When measuring a compressibility gas by mass flow (Steam

M, Gas M) and standard condition (Gas Qn), this expansion

factor is useful to correct the deviation from the ideal gas

law.

[H40:FLOW ADJUST] Select a break point

correction

Select a break point correction for the instrumental error from

“NOT ACTIVE(0) OR ACTIVE(1)”.

[H41, H45:FLOW ADJUST] Instrumental Error

Correction

■ Correct the instrumental error in flowmeter characteristics

using 1 line-segment approximation (with five correction

factors).

(1)Flow frequency input at line segments needs to be

1≤f2≤f3≤f4≤f5.

When four correction factors are available, line segments

need to be f

4=f5 and d4=d5.

When three correction factors are available, line

segments need to be f

3=f4=f5 and d3=d4=d5.

(2)When a flow input of f

1 or less is present, correct the

instrumental error as the corrected value=d

(3)When a flow input of f

5 or more is present, correct the

instrumental error as the corrected value=d

(4)Abscissa (f1 to f5) : Set the break-point frequencies as

parameters.

(5)Ordinate (d

1 to d5) : Set the corrected value (%) at each

break-point as parameters.

Qs-I

Set value = - × 100

Where

Qs : Correct flowrate determined by a reference

apparatus

I : Indication of vortex flowmeter

• Definition of error varies with the type of flowmeter. Be

careful of the difference in signs in the error and corrected

value.

f(Hz)

Qf = × 100

K-factor

holds and the error is included in the K-factor.

Therefore, for the region where the K-factor shift on the

positive side, the corrected value is negative.

The corrected value when the calibration fluid of the

flowmeter and the fluid to be measured are different must

be set as a corrected value obtained by making both

abscissas agree with respect to the Reynolds number.

Page 63

5-16

IM 01F06A00-01E

5. PARAMETER SETUP

(8) Item J (TEST)

These items are for test of output.

A value in “( )” is the data corresponding to indicator.

[J10:OUT ANALOG] 4 to 20mA Current output.

It tests 4 to 20mA Current output. Electric current of the set

value (%) which designates 4 to 20mA as 0 to 100%.

When this test is executed, transistor contact output (Pulse,

Alarm, Status) is fixed at ON or OFF (not determined).

Exiting this parameter item or stopping access after ten

minutes, this function will be reset automatically.

[J20:OUT PULSE] Pulse output

It tests Pulse output.

The number of pulses which is set (unit: PPS) is output.

Exiting this parameter item or stopping access after ten

minutes, this function will be reset automatically.

When this test is executed, current output is fixed at 0%

(4mA).

[J30:OUT STATUS] Status output test

Status output test can be executed (OFF(0) or ON(1)).

When this test is executed, current output is fixed at 0%

(4mA).

Exiting this parameter item or stopping access after ten

minutes, this function will be reset automatically.

(9) Item K (Maintenance)

These items are for maintenance.

A value in “( )” is the data corresponding to indicator.

[K10:TLA] TLA Adjustment

Trigger level (TLA) is adjusted upon shipment. Therefore,

TLA adjustment is nonnecessity. But set TLA adjustment

below as

• The measurement of Low flow rate area is required.

• Mechanical vibration and impact are applied to

digitalYEWFLO and Zero point and low flow rate area is

output.

Note: Refer to “6.2 Adjustment for Manual Mode”.

[K20:SIGNAL LEVEL]

Set the signal level.

[K25:N. B. MODE]

Set the Noise Balance Mode from “AUTO(0)” or

“MANUAL(1)” or “TUNING AT ZERO(2)”

[K26:N. B.RATIO] The ratio of Noise Balance.

When “NOISE BALANCE MODE (N. B. MODE)” is

“AUTO”, noise balance value is the indication only.

When N.B. mode is “MANUAL”, the noise balance can be

adjusted entering the setting values.

Note: Refer to “6.2 Adjustment for Manual Mode”.

[K28:SET VORTEX F] Output test by setting

simulated frequency.

Amplifier check is executed by simulated frequency input.

Output to be able to check are, analog output, pulse output/

contact output.

Test status also can be seen on display board.

NOTE

• In case of multi-variable type (/MV), output value is calculated by setting density and temperature.

• Available for 5.10 or greater version that can be checked in K50 SOFTWARE REV.

[K30:VELOCITY] Flow velocity

Indication of flow velocity at the operating conditions.

[K32:SPAN V] Flow span velocity

Indication of flow span velocity.

When /MV is selected and “F10 : FUNCTION” is “Saturated

Steam” or “Superheat Steam” and “GAS : STD/Normal” or

“LIQUID : Mass”, the display of span velocity may differ

from an actual value.

[K34:VORTEX FREQ.] Vortex frequency.

Indication of vortex frequency at operating conditions.

[K36:SPAN F] Span vortex frequency.

Indication of span vortex frequency.

When /MV is selected and “F10 : FUNCTION” is “Saturated

Steam” or “Superheat Steam” and “GAS : STD/Normal” or

“LIQUID : Mass”, the display of span frequency may differ

from an actual value.

[K40:ERROR RECORD] Error record

The error record can be indicated.

• The error is recorded as history.

• The error history is not time-series data.

• The error history can be holded for 30 days.

In order to clear an error record, set the video inverse bar by

“< >” and press “ENTER”key twice.

[K50:SOFTWARE REV] Software revision

The software revision can be indicated.

Page 64

5-17

IM 01F06A00-01E

5. PARAMETER SETUP

5.5 Error Code Lists

When an ERROR is displayed by SELF CHECK in item A60, B60, C60, D60, E60, or H60, J60, K60, M60, press function key F2

[DIAG] and the error contents are displayed.

The error contents are listed below:

Table 5.1 ERROR Code List

T050501.EPS

Engineering

Unit Output

Engineering

Temp Output

Pulse

Output

Current Output

Problem Cause

Error

Name

Diagnostic

Message

Indication

Err-01

Err-02

Err-06

Err-07

CHECK

Vibration

CHECK

Vibration

CHECK

Flow

CHECK

Flow

Err-10

Err-11

Err-12

Err-13

Err-20

Err-30

Err-40

OVER

OUTPUT

SPAN SET

ERROR

PULSE

OUT

ERROR

PULSE

SET

ERROR

Transient

noise

High

vibration

Fluctualing

Clogging

TEMP

OVER

OUTPUT

OVER

TEMP

SENSOR

FAULT

TEMP

CONV.

FAULT

PRE-AMP

ERROR

EE PROM

ERROR

FLOW

SEBSOR

FAULT

CPU

FAULT

Over range

output

signal

Span

Setting

Error

Pulse

output

error

Pulse

setting

error

Error of

Vibration

Error of

Vibration

Error of

Flow

Error of

Flow

Over range

Temp

output

signal

Error of

temperature

Error of

thermometer

Error of

temperature

converter

PRE-AMP

is failed

EEPROM

is not

functioning

correctly

Error of

Flow

sensor

CPU is

failed

Output signal is

110% or more

Span setting

parameter is more

than 1.5 times of

max flow velocity

Pulse output

frequency is more

than 10kHz

Pulse output

frequency setting

is more than 10kHz

Transitional

disturbance

High vibration

Fluctuating

Clogging

Temp output

signal is 110% or

more, and 0%

below.

Temp value is

-50°C below or

300°C over.

Disconnection or

short of

thermometer

sensor

Temperature

converter is failed

Flow sensor

Is fauit.

All operations are

Dead.

Display and self

dignostic function

is also dead.g

Fixed at

110%

(*1)

Normal

Operation

Normal

Operation

Normal

Operation

Hold

Based on

K45

Normal

Operation

Normal

Operation

Normal

Operation

Remain in

operationat

Temp=-50°C

Temp=300°C

Remain in

operation

at Manual

setting

condition

Remain in

operation

at Manual

setting

condition

Normal

Operation

Over

110% or

-2.5%

below

Normal

Operation

Over

110% or

-2.5%

below

Normal

Operation

Normal

Operation

Fixed at

10KHz

Normal

Operation

Normal

Operation

Stop

Output

Normal

Operation

Normal

Operation

Normal

Operation

Remain in

operation at

Temp=-50°C

Temp=300°C

Remain in

operation at

Manual

setting

condition

Remain in

operation at

Manual

setting

condition

Normal

Operation

Halt

Normal

Operation

Halt

Normal

Operation

Normal

Operation

Normal

Operation

Normal

Operation

Hold

Based on

K45

Normal

Operation

Normal

Operation

Normal

Operation

Remain in

operation at

Temp=-50°C

Temp=300°C

Remain in

operation

at Manual

setting

condition

Remain in

operation

at Manual

setting

condition

Normal

Operation

Fixed at 0%

Normal

Operation

Halt

Normal

Operation

Normal

Operation

Fixed at

10kHz

Normal

Operation

Hold

Normal

Operation

Normal

Operation

Normal

Operation

Normal

Operation

Remain in

operation at

Temp=-50°C

Temp=300°C

Remain in

operation

at Manual

setting

condition

Remain in

operation

at Manual

setting

condition

Normal

Operation

Stop the

Output

Normal

Operation

Halt

Normal

Operation

Normal

Operation

Hold

Normal

Operation

Normal

Operation

Normal

Operation

Normal

Operation

Remain in

operation at

Temp=-50°C

Temp=300°C

Remain in

operation

at Manual

setting

condition

Remain in

operation

at Manual

setting

condition

Normal

Operation

OFF(H)

Normal

Operation

Halt

Normal

Operation

Normal

Operation

Normal

Operation

Normal

Operation

Normal

Operation

Stop the

total

Normal

Operation

Normal

Operation

Normal

Operation

Remain in

operation at

Temp=-50°C

Temp=300°C

Remain in

operation at

Manual

setting

condition

Remain in

operation at

Manual

setting

condition

Normal

Operation

Halt

Normal

Operation

Halt

Change

parameters

or over ranged

flow input

Change

parameters

span factor

is outside the

acceptable

limits

Change

parameters

(ItemC,ItemE)

Change

parameters

(ItemC,ItemE)

CHECK the

vibration

CHECK the

vibration

CHECK the

clogging

CHECK the

clogging

CHECK the

temperature

or temperature

span

CHECK the

temperature

Change

thermometer

sensor.

Change

converter

case build in

temperature

sensor.

Replace the

AMP. unit

Replace the

AMP. unit

Change

Flow sensor

Replace the

AMP. unit

Totalizing

Output

How to

recover

Note. Normal Operation : Operation continues without relation to error occurrence.

Remain in Operation : Calculation continues with relation to error occurrence.

Normal

Operation

Normal

Operation

Normal

Operation

Normal

Operation

Normal

Operation

Normal

Operation

Normal

Operation

Normal

Operation

Fixed at

110% in

case of

over 110%,

and fixed at

0% when in

case of less

than 0%.

(*1)

Remain in

operation at

Temp=-50°C

Temp=300°C

Based on

F58

Based on

F58

Remain in

operation

at Manual

Setting

Temperature

Value

Over 110%

or -2.5%

below

Normal

Operation

Over

110% or

-2.5%

below

Normal

Operation

Normal

Operation

Normal

Operation

Normal

Operation

Normal

Operation

Normal

Operation

Normal

Operation

Normal

Operation

Fixed at

110% in

case of

over 110%,

and fixed at

0% when in

case of less

than 0%.

(*1)

Remain in

operation at

Temp=-50°C

Temp=300°C

Based on

F58

Based on

F58

Remain in

operation

at Manual

Setting

Temperature

Value

Fixed at 0%

Normal

Operation

Halt

Normal

Operation

Normal

Operation

Normal

Operation

Normal

Operation

Normal

Operation

Normal

Operation

Normal

Operation

Normal

Operation

Normal

Operation

Remain in

operation at

Temp=-50°C

Temp=300°C

Based on

F58

Based on

F58

Remain in

operation

at Manual

Setting

Temperature

Value

Fixed at 0%

Normal

Operation

Halt

Select

flow rate

Select

temperature

Select

flow rate

Select

temperature

% Output

Pulse / Status Output

Pulse

(*2)

Status

(*2)

Alarm

(*2)

Fixed at

110%

(*1)

Normal

Operation

Normal

Operation

Normal

Operation

Hold

Based on

K45

Normal

Operation

Normal

Operation

Normal

Operation

Remain in

operationat

Temp=-50°C

Temp=300°C

Remain in

operation

at Manual

setting

condition

Remain in

operation

at Manual

setting

condition

Normal

Operation

Fixed at 0%

Normal

Operation

Halt

OFF(H)

Halt

(*1)

“110%” is based on “D30 : OUT LIMIT(H)”.

(*2)

Pulse output : These conditions should be done in case of which B20 is “SCALED PULSE”, “UNSCALED PULSE”, “FREQUENCY”.

Status output : These conditions should be done in case of which B20 is “FLOW SW (LOW :ON)”, “FLOW SW (LOW : OFF)”.

Alarm output : These conditions should be done in case of which B20 is “Alarm”.

Page 65

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6. OPERATION

After you have installed the flowmeter into the process

piping, wired the input/output terminals, set up the required

parameters, the vortex flowmeter should output an accurate

flow signal from its terminals as soon as the measured liquid

begins to flow.

This section describes procedure of test method and adjust-

ment method for the pre-operation.

NOTE

The initial parameter setting has already been done at the factory according to the sizing data when ordering. Therefore it is not necessary to set parameters except measurement condition changes or some additions happen.

6.1 Adjustment

6.1.1 Zero Adjustment

No zero adjustment is necessary since the zero point does not

shift.

Because of the effect of electrical noise and vibration noise,

digitalYEWFLO may provide an output even when the

flowrate is zero. In that case, properly eliminate the source of

the noise.

Refer to “6.2 : Adjustment for manual mode”.

6.1.2 Span Adjustment

In normal application, you need not confirm the span.

If you need to ensure the output of 4 to 20mA DC, refer to

“6.1.3 Loop Test”.

6.1.3 Loop test

To ensure output of 4 to 20mA DC or pulse, their loop tests

can be done using parameter “J10 (Analog out)” or “J20

(Pulse test)”.

If you are verifying the analog output, follow the procedure

on the verification procedure.

1. Connect the instruments referring to Figure 6.1, and warm

up for three minutes more.

2. Set span frequency in Parameter J10:OUT ANALOG.

3. In case the load resistance is 250 ohm, digital multimeter

indicates 5V. Otherwise if it is known load resistance

value, it indicates R x 0.02A.

4. Check output value after set 50% in Parameter J10.

5. Check output value after set 0% in Parameter J10.

–

F060101.EPS

250Ω

24V DC ±10%

BT200

SUPPLY

Figure 6.1 Connection of Maintenance Instruments

IMPORTANT

• When using any test-purpose measuring

instruments, do not ground them.

• All of your parameter settings will be cancelled

if you turn digitalYEWFLO off less than 30 seconds after the parameter setup. Keep digitalYEWFLO turned on at least 30 seconds after setting up the parameters.

6.1.4 Totalizer Function Start and Totalized Value Reset

When using the Totalizer Function, the start setup should be

done.

(1) Start operation using BT200

Enter to B40(TOTAL START), and move the video bar

to “EXECUTE”. Push “ENTER” key at 2 times.

(2) Start operation using indicator

Enter to “Setting mode”, move to B40 of parameter

number, and enter to “01” of data number.

Refer to “4.4: Setting mode”.

Totalized value can be reset using the indicator or BT200.

(1) Reset operation using BT200

Enter to B42 (TOTAL RESET), and move the video bar

to “EXECUTE”. Push “ENTER” key at 2 times.

(2) Reset operation using indicator

Enter to “Setting mode”, move to B42 of parameter

number, and enter to “01” of data Number.

Refer to “4.4 : Setting mode”.

6. OPERATION

Page 66

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6. OPERATION

6.1.5 Unit of Pulse Output (Scaling)

Pulse output are constructed by two units, that are “Scaled

pulse and Unscaled Pulse”.

(1) Scaled Pulse

When SCALED PULSE is selected in B20, set flowrate per

one pulse output. Rate unit is linking to the flow unit.

(2) Unscaled Pulse

When UNSCALED PULSE is selected in B20, it output

number of vortex (vortex frequency) as a pulse-number,

which is detected from vortex shedder bar. (1.0 must be set

for this.)

Refer to 7.6 (1) Flow calculation.

● Pulse Rate setting

Pulse rate setting is settable by “B21:PULSE RATE”.

6.1.6 Setting of Burnout Switch

digitalYEWFLO is equipped with a CPU error burnout

function used to set the output direction upon CPU error, and

a sensor burnout function that sets the direction of the output

in the event of burnout of the temperature sensor. When

factory-shipment under normal conditions, the output of both

CPU error burnout and sensor burnout are set to HIGH, but if

suffix code/C1 is specified, the CPU error burnout is set to

LOW(-2.5% below) output, and sensor burnout is set to

LOW(-2.5% below) output, respectively. The setting of the

direction of output from burnout can be changed.

To change the direction of output arising from burnout,

switch the setting pin on the CPU assembly (see Table 6.1).

Table 6.1 Output Setting Pin for Burnout

Pin position

CPU error burnout direction

CPU error burnout output

Remark

110% or more

(21.6mA DC)

-2.5% or less (3.6mA DC)

Set to HIGH before shipment.

Set to LOW for option specification code / C1.

T060101.EPS

HIGH

LOW

TP2

COM

HHT

F060102.EPS

Pin position of Burnout Switch

Pin position of Write Protect Switch (See 6.1.7)

Figure 6.2 Pin position of Burnout and Write Protect

Switch

6.1.7 Setting of Write Protect Switch

By setting the write protect function to “Protect”, it is

possible to prevent the overwriting of parameters. Write

protection can be carried out using either the hardware switch

on the CPU board (i.e., Switch 2) or software parameter

settings. If either of these items is set to “Protect”, the

overwriting of parameters will be prohibited.

NOTE

If the hardware switch is set to “Protect”, it will not be possible to overwrite parameters; furthermore, this condition will be maintained until the switch is set to “Enable”.

For more details regarding usage of the write protect function

and the software’s parameter switches, refer to 4.6.11 Write

Protect.

Table 6.3 Setting pin for Write Protect

Pin position

CPU error burnout direction

T060102.EPS

Enable

Protect

Page 67

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IM 01F06A00-01E

6. OPERATION

6.1.8 Power Failure

When a power failure occurs, the totalized value will be

protected by EEPROM (Electrically Erasable Programmable

ROM). But during a power failure, the vortex flowmeter

stops and also the totalizing will stop.

After a power is recovered, the vortex flowmeter and the

totalizing start to work automatically.

EEPROM doesn’t need a battery for backup.

6.2 Adjustment for Manual Mode

digitalYEWFLO does not need the initial adjustment because

digitalYEWFLO is always adjusted by itself automatically.

These adjustments should be done in case that

indicator reads over zero at zero flow.

6.2.1 Low Cut Adjustment

Adjust to noise elimination or zero flow in the low flowrate

(or low frequency) range.

The settable range for low cut flowrate is to half of mini-

mum flowrate.

6.2.2 Tuning

This adjustment should be done according to a flow figure

shown below.

START

Is it zero flow?

Stop flow to be zero

Ye s

Set "TUNING AT ZERO" of "K25:N.B MODE"

Wait more than 30 seconds Ensure the complete of the tuning function.

Is indication reads zero at zero flow?

Finishing the tuning functios

Retry the tuning and ensure the pipeline conditions?

Ensure TLA value

F060201.EPS

If this adjustment is executed, the following value is

changed.

K25:N.B MODE = MANUAL

K26:NOISE RATIO=Constant value

Minimum flowrate is increased when TLA value is

changed form initial value.

Page 68

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IM 01F06A00-01E

6. OPERATION

1. Tuning method

(1) Ensure the condition of flowrate

The necessary condition for tuning function is zero

flow.

(2) Executing the tuning function.

Set “ TUNING AT ZERO” of “K25:N.B MODE”.

Wait more 30 second.

(3) Finishing the tuning functions

Using the BT200

(a) Press “DATA” key of BT200 function key.

(b) Ensure the indication of “MANUAL” which is

“K25:N.B MODE”

(“NOW TUNING” is indicated during tuning operation.)

Using the indicator

(a) Press “SHIFT” and “SET” key simultaneously.

(b) Press “SET” key and ensure “01” of Lower

indication.

(“02” is indicated during tuning operation. Execute (a),

(b) once again.)

2. TLA value

TLA values is possible to change after executing “TUN-

ING”. In this case, minimum flowrate is increased.

Minimum flowrate for TLA value is given by below

equation.

Minimum Flowrate after changing TLA Value

Specified Minimum Flowrate

TLA Value after Tuning

TLA initial value or defalt value

F060202.EPS

Ensure minimum flowrate for changing TLA value.

3. Output

After tuning, ensure that the indication reads is zero where

no fluid is flowing.

If the indication reads over zero is done continuously, retry

the tuning and ensure the below condition.

Does high vibrations occur in pipeline?

In this case, refer to “2:INSTALLATION”, and keep the

pipeline properly.

6.3 Other Maintenance

6.3.1 Cleaning Precautions

Care should be taken to prevent the build up of dirt, dust or

other material on the display glass and data plate. In case of

its maintenance, soft and dry cloth is used.

Page 69

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IM 01F06A00-01E

7. MAINTENANCE

CAUTION

• Disassemble work should be done only for error occurrence.

• Maintenance work must be carried out by expert engineer or skilled personnel and not by operators.

• Before opening the cover, it is important to ensure that at least 10 minutes have passed since the power was turned off. Furthermore, opening of the cover must also be carried out by expert engineer or skilled personnel.

CAUTION

• It is prohibited by law for the user to modify flameproof instruments. It is not permitted to add or remove indicators. If modification is required, contact YOKOGAWA.

• Explosion protected type must be, as a rule, removed to a non-hazardous area for maintenance and be disassembled and reassembled to the original state.

• For TIIS, ATEX and SAA explosion proof, the display cover is locked by the clamp. In case of opening the display cover, use the hexagonal wrench attached.

• Be sure to lock the cover by the clamp using the hexagonal wrench attached after installing the cover.

Page 70

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IM 01F06A00-01E

7. MAINTENANCE

7.1 Changing the Terminal Box Orientation

The terminal box can be changed in four directions with respect to the flow direction.

Integral Type Vortex Flowmeter Remote Converter Type Vortex Flowmeter

<1> Remove the converter cover. <2> For amplifier unit removal, refer to paragraph 3.7.2. <3> Disconnect the vortex shedder assembly lead-wires from

the converter.

<4> Remove the bracket mounting bolts and remove the

converter and bracket from the flowmeter body. The bracket applies to the 1 (25mm) to 4 (100mm) inch flowmeters.

<5> Remove the four allen bolts securing the converter to the

bracket.

<6> Turn the converter to the desired orientation. When

reassembling the converter, reverse the above procedure.

<1> Remove the terminal box cover. <2> Loosen two screws to disconnect leadwires from shedder

bar.

<3> Remove the bracket mounting bolts and remove the

terminal box and bracket from the flowmeter body. The bracket applies to the 1 (25mm) to 4 (100mm) inch flowmeters.

<4> Remove the four allen bolts securing the terminal box to the

bracket.

<5> Turn the terminal box to the desired orientation. When

reassembling the terminal box, reverse the above procedure.

Amplifier Unit

Indicator

Converter Cover

* *

Bracket Mounting Bolt

Body

Bracket

Vortex Shedder Assembly

Converter Mounting Bolt

Wire*

Te r minal Box Cover

Te r minal Box

Bracket

Allen Bolt

Bracket Mounting Bolt

Wire*

Vortex Shedder Assembly

Body

Wire Color Terminal

Red

White

A B

Wire Color Terminal

Red

White

A B

Locking Screw

Shielded Cover

Clamp

Only for TIIS, ATEX, and SAA Explosion proof

Lock Screw

Clamp

Only for TIIS, ATEX, and SAA Explosion proof

3mm

F070101.EPS

Page 71

7-3

IM 01F06A00-01E

7. MAINTENANCE

7.4 Amplifier Unit Assembling

IMPORTANT

The amplifier unit must be assembled keeping the procedure as follows. Amplifier may not operate normally when the procedure does not keep.

(1) Put two-mounting pins

into mounting hole

(2) Push the head of two mounting screws

lightly.

(3) Push head of two IC

and mount the amplifier unit

(4) Tighten two mounting screws

F070401.EPS

Amplifier Unit

Mounting Screw

Mounting Holes

Mounting Pins

Figure 7.2 Removing and Reinstalling the Amplifier Unit

7.2 Indicator Removal and Rotation

(1) Turn the power OFF.

(2) Remove the cover.

* In case of the Explosion protected type, remove the

cover after unlock the clamp.

(3) For the indicator, disconnect the cable connector from

the amplifier unit.

(4) Loosen the two indicator mounting screws using a

Phillips screwdriver.

(5) Pull out the indicator.

(6) Reinstall the indicator in the reverse order to its removal

(above) and secure the mounting screws.

F070201.EPS

Indicator

90°

Indicator Mounting Screws (2PCS)

Figure 7.1 Removing and Reinstalling the Indicator

7.3 Amplifier Unit Removal

IMPORTANT

Do not turn the amplifier unit for removal or assembling. The connector pins may be damaged.

(1) Turn the power OFF.

(2) Remove the converter cover.

* In case of the Explosion protected type, remove the

cover after unlock the clamp.

(3) Remove the indicator according to the procedures

described in paragraph 7.2.

(4) Loosen the terminal screws and remove the amplifier

unit.

Page 72

7-4

IM 01F06A00-01E

7. MAINTENANCE

7.5 Vortex Shedder Removal

CAUTION

• Disassemble work should be done only for error occurrence.

• Only expert engineer or skilled personnel are permitted to open the cover.

• When the vortex shedder is disassembled, and empty the flow tube before the gasket must be replaced with a new one.

• Output error may cause when the shedder bar is not restored correctly.

• For Explosion proof type, move vortex flowmeter to non-hazardous area firstly, then do the assemble work.

(1) Remove the converter cover.

(2) For Integral Type, loosen the terminal screws and

disconnect leadwires on the amplifier and loosen 4

screws to disassemble the Amplifier. And for Remote

Type, remove the terminal box cover in the same way.

(3) Loosen the bracket mounting bolts and remove the

terminal box together with the bracket. Be careful not to

damage the leadwires connected to the vortex shedder

assembly when removing the terminal box.

(4) Loosen the vortex shedder assembly mounting bolts or

nuts and remove the vortex shedder assembly.

(5) When reassembling the vortex shedder assembly, reverse

above procedure. Confirm the following.

a. The gasket should be changed to new one.

b. The guide pin on the vortex shedder mounting block

meets the guide pin hole. See Figure 7.3. The guide

pin applies to the 1 to 4 inch flowmeters.

c. The vortex shedder assembly is installed as illus-

trated in Figure 7.3.

d. Tighten the sensor mounting bolts or nuts with a

torque wrench, applying the torque specified below.

Table 7.1 Torque Value

15 (1/2) 1.6 (140)

25 (1) 1.2 (105) 1.75 (153) 1.2 (105)

40 (1-1/2) 1.2 (105) 1.75 (153) 1.2 (105)

50 (2) 2 (174) 5 (435) 2 (174)

80 (3) 3 (260) 10 (870) 4 (348)

100 (4) 4 (348) 10 (870) 5 (435)

150 (6) 5 (435) 7 (608) 5 (435)

200 (8) 7 (610) 10 (870) 7 (608)

250 (10) 16 (1390)

300 (12) 16 (1390)

T070501.EPS

Nominal Size

mm (inch)

Standard

High Temperature (/HT)

UNIT: kg.m (艎b.in)

In case of High Temperature Version (Option code: HT),

First time tighten Nuts with a torque wrench, applying the

torque specified “A”.

Next time loosen Nuts completely, then again tighten Nuts

with a torque wrench, applying the torque specified “B”.

e. Insert the leadwires (vortex shedder) through the

terminal box bottom hole and lower the terminal box

slowly until the bracket touches the flowmeter

shoulder. Be sure to keep the leadwires vertical

while lowering the terminal box.

f. After assembling, confirm that there is no leakage

from the vortex flowmeter.

IMPORTANT

Please tighten the screws/bolts uniformily and observing the torque value in Table 7.1.

Page 73

7-5

IM 01F06A00-01E

7. MAINTENANCE

Integral Type

Remote Type

F070501.EPS

Color Wire

Red

WhiteAB

Vortex shedder Mounting Bolt

Vortex shedder Mounting Block

Bracket

Converter Mounting Bolt

Leadwire

Vortex Shedder Assembly

Gasket

Amplifier Unit

Locking

Screw

Locking

Screw

Clamp

Shielded Cover

Converter Case

Indicator

Converter Cover

Bracket Mounting Bolt

Terminal Box

Bracket

Bracket Mounting Bolt

Allen Bolt

Terminal Box Cover

Flow direction

Flow Direction Arrow

Vortex Shedder Assembly

Direction of Flow

Leadwire

Vortex Shedder Mounting Block

Guide Pin Hole

Vortex Shedder Assembly

Clamp

Figure 7.3 Disassembling and Reassembling the Vortex Shedder Assembly

Page 74

7-6

IM 01F06A00-01E

7. MAINTENANCE

7.6 Flow Calculation

(1) Flow Calculation

The flowrate is calculated with the following equations based

on the N number of generated vortices:

(a) Flowrate (in engineering units)

RATE=N

䉭t

. Uk . U

.... (7.1.1)

KT=KM . U

{1–4.81×(Tf–15)×10–5}.... (Metric Units)

.... (7.1.2)

KT=KM . {1–2.627×(Tf–59)×10

–5

} .... (English Units)

.... (7.1.3)

(b) Flowrate (%)

RATE(%)=RATE .

.... (7.2)

TOTAL=TOTAL + 䉭TOTAL

䉭TOTAL=RATE · 䉭t · ·

.... (7.3)

(d) Pulse output frequency

PULSE FREQ=RATE ·

.... (7.4.1)

PULSE FREQ= N ·

䉭t

.... (Unscaled pulses)

.... (7.4.2)

(e) Velocity

V=N .

䉭t

. UKT .

πD

.... (7.5)

(f) Reynolds number

Red=V . D . ρ

×1000 .... (Metric Units)

.... (7.6.1)

Red=V . D . ρf .

×124 .... (English Units)

.... (7.6.2)

where N: Number of input pulses (pulse)

∆t: Time corresponding to N (seconds)

: Instrumental error correction factor

: Expansion correction factor for compressive

fluid

: Reynolds number correction factor

KT: K-factor at operating conditions (pulses/

litre) (pulse/gal)

KM: K-factor at temperature 15°C (59°F)

:Unit conversion factor for K-factor

Uk: Flow unit conversion factor (Refer to item

(2))

(user): Flow unit conversion factor for user’s unit

: Factor corresponding to flow unit time (ex./

m (minute) is 60.)

PR: Pulse rate (ex. E+ 3 is 103.)

: Temperature at operating conditions (°C)

(°F)

: Flowrate span

: Total rate

D: Internal diameter (m) (inch)

µ : Viscosity (cP)

: Density at operating conditions (kg/m3) (艎b/

)

(2) Flow Conversion Factor (Uk)

Flow conversion factor Uk is obtained by carrying out the

following computation depending on the selection of the fluid

to be measured and the flow unit.

(a) Steam

M (Mass flowrate): U

k=ρf

. Uρf . Uk (kg) .... (7.7.1)

k=ρf

. Uk (艎b) .... (7.7.2)

Qf (Flowrate at operation): U

k=Uk

(m3) .... (7.7.3)

k=Uk

(acf) .... (7.7.4)

(b) Gas

Qn: (Flowrate at STP):

Uk = U

k (Nm3)

Tn + 273.15

+ 273.15

.... (7.8)

Uk = U

k (scf)

(Tn-32) + 273.15

-32) + 273.15

M: (Mass flowrate): Uk=ρf . Uρf . Uk (kg) .... (7.9.1)

k=ρf

. Uρf . Uk (艎b) .... (7.9.2)

Qf: (Flowrate): U

k=Uk

(m3) .... (7.10.1)

Uk=Uk (acf) .... (7.10.2)

Qf: (Flowrate): U

k=Uk

(m3) .... (7.11.1)

k=Uk

(acf) .... (7.11.2)

M (Mass flowrate): U

k=ρf

. U (kg) .... (7.12.1)

=7.481×ρf . U (艎b) .... (7.12.2)

7.481 is a conversion factor of U.S

gal into acf

(d) User’s unit

k=Uk

(user) .... (7.13)

Uρ

: Unit conversion factors of density.

k(kg)

, U

k(Nm3)

, U

k(m3)

k(lb)

, U

k(Btu)

, U

k(scf)

, U

k(acf)

: Unit conversion factors

Page 75

7-7

IM 01F06A00-01E

7. MAINTENANCE

(3) Mass Flow calculation

a) Steam

In case of saturated steam, mass flow rate is calculated

from density values to temperature measured by using

saturated steam table.

In case of superheat steam, mass flow rate is calculated

from density values to temperature measured by using

steam table. In order to measure superheat steam, it is

necessary to make constant pressure value. A pressure

values which is entered in parameter is used.

M =

· Q

..........................................................................................................

(7.14.1)

b) Gas

In case of gas, Volumetric flow rate at standard

condition is calculated, so Pressure-Temperature

correction is carried out. It is necessary to make

constant pressure value. A Pressure values at opera-

tional condition, temperature and pressure value at

standard condition which is entered in parameter is used.

= Qf · –– · –––––––––– · –– ............................(7.14.2)

c) Liquid

In case of liquid, mass flow late is calculated from

which used to calculate the secondary function for the

density value to the temperature. A density value which

indicated by the order sheet is used.

M = Q

· {1 + a1(Tft – Tn) · 10-2 + a2(Tft – Tn)2 · 10-6}

........................................................................ (7.14.3)

[Supplement]

M= Q

= Qf ·

· {1 + a1(Tf – Tn) × 10-2 + a2(Tf – Tn)2 × 10-6}

Where, ∆T

= Tf – T

Density compensation formula;

{1 + a1 · ∆Tf × 10-2 + a2∆T

× 10-6}

: Density at T

k1 =

k2 =

∆T1 = T1 – T

∆T2 = T1 – T

Then a1 and a2 can be calculated from formulas below,

= {(k1 – 1) · ∆T

– (k2 – 1) · ∆T

} /

{(∆T

· ∆T

– ∆T2 · ∆T

) × 10-2}

= {(k1 – 1) · ∆T2 – (k2 – 1) · ∆T1} /

{(∆T

· ∆T2 – ∆T

· ∆T1) · 10-6}

Where

M: Mass flow

: Volumetric flow rate at Standard condition

: Volumetric flow rate at oprtating condition

: Temperature at operating condition (°C), (°F)

Tf: Temperature at standard condition (°C), (°F)

: Measured temperature value (°C), (°F)

: Pressure at operating condition (kPa abs), (psi)

: Pressure at standard condition (kpa abs), (psi)

K: Deviation factor

: Density calculated by temperature value

: Density at Standard condition (kg/m3), (lb/cf)

: Density at operating condition

: Density unit conversion factor

k(kg)

, U

k(Nm3)

, U

k(m3)

: Flow unit conversion factor

: 1st temperature coefficient

: 2nd temperature coefficient

Example: conversion factor in kg.

kg : U

kkg

ton : U

kkg

=0.001

fTn

+ 273.15 1

nTfT

+ 273.15 K

Page 76

8-1

IM 01F06A00-01E

8. TROUBLESHOOTING

CAUTION

Please avoid replacing the amplifier unit from the case, and the vortex shedder bar. When these procedures are needed, please contact the nearest Yokogawa office.

8.1 Flow

● Large flowmeter errors and flowrate reading fluctuates.

Are the parameters configured correctly at operating conditions?

Is straight lengths of pipeline stable?

Configure the parameters correctly

Ye s

Was a faulty area found with selfdiagnosis?

Ensure the straight lengths of pipeline referring to "2:INSTALLATION".

Does gaskets protrudes?

Ye s

Replace the gaskets referring "2:INSTALLATION".

Ye s

Refer to the error code list and check for recovery measures.

• If a built-in indicator is attached, check the display of the error code.

• Connect a hand-held terminal and check self-diagnostic.

Is there a snapping

sound from the flowmeter ?

Check the cavitation referring to "9.5:Sizing".

Ye s

Is digitalYEWFLO properly grounded?

Ground YEWFLO.

Does the value in

"K34:VORTEX FREQ."

undergo a lot of

changes?

Ye s

This case is due to coating of stuff vortex shedder bar. Check the piping inner surfaces.

Normal

Check standards.

Ye s

F080101.EPS

Note 1:

Note 2:

This is the temperature and pressure at digitalYEWFLO mounted place. Contact with our service in case this is not carried out into the right statement.

● After the output showed correctly, the indication goes down to zero at certain time.

When this problem occurred, the cause is suspected of

deterioration of sensor sensitivity and turbulent of fluid flow

due to coating on the shedder bar and flowmeter inner tube.

How to cope with this problem

1) Referring item 7.5 “Vortex Shedder Removal”, take out

the Vortex Shedder bar and clean it.

2) If there is the coating on inner tube of the flowmeter,

remove the flowmeter body from adjacent pipes and

clean it.

Page 77

8-2

IM 01F06A00-01E

8. TROUBLESHOOTING

● No output is indicated when the fluid is flowing.

Is the output signal current present?

Is "6.1.3:Loop test" OK?

Check the polarities.

Ye s

Are parameters configured correctly at operating conditions?

Ye s

Is "K34:VORTEX FREQ" 0Hz?

Ye s

Are the power polarities correct?

Are there any disconnected power terminals?

Fasten the power terminal.

Ye s

Is the cable broken?

Replace the cable.

Ye s

Replace the AMP unit.

Configure the parameters correctly.

Is the low cut configured correctly?

Configure the Low cut value correctly.

Is the TLA value configured correctly?

Configure the TLA value referring to "6.2.2:Tuning"

Is the density value configured correctly?

Configure the density value correctly at operating conditions.

Ye s

Is output indicated when "K25:N.B MODE" is "MANUAL" and "K26:NOISE RATIO" is "0"

Is there broken the sensor?

Replace the AMP unit.

Replace the shedder bar

Ye s

This case is due to coating of vortex shedder bar. Check the shedder bar piping inner surfaces.

Ye s

F080102.EPS

Ye s

Was a faulty area found with selfdiagnosis?

Refer to the error code list and check for recovery measures.

• If a built-in indicator is attached, check the display of the error code.

• Connect a hand-held terminal and check self-diagnostic.

Page 78

8-3

IM 01F06A00-01E

8. TROUBLESHOOTING

● Output is indicated at zero flow.

Is fluid flowing?

Are parameters configured correctly at operating conditions?

Stop flow.

Ye s

Configure the parameters correctly.

Are the load resistance and supply voltage within the tolerance limits?

Ye s

Adjust to within the tolerance limits.

Ye s

Is digitalYEWFLO properly grounded?

Ground digitalYEWFLO.

Ye s

Does low cut adjust?

Adjust to low cut.

Does the tuning execute?

Execute the tuning referring "6.2:Adjustment for manual mode"

Ye s

Does high vabrations occurs in pipeline?

Eliminate vibration noise using pipe support.

Ye s

Are pulsation produced? Check the pipeline conditions referring "2:INSTALLATION"

F080103.EPS

Ye s

Was a faulty area found with selfdiagnosis?

Refer to the error code list and check for recovery measures.

• If a built-in indicator is attached, check the display of the error code.

• Connect a hand-held terminal and check self-diagnostic.

Page 79

8-4

IM 01F06A00-01E

8. TROUBLESHOOTING

8.2 Flow (Only for /MV)

● Start with this flow in case of /MV.

Are the power polarities Correct?

Are the load resistance and supply voltage within the tolerance limits?

Check the polarities.

Ye s

Are the sensor connected correctly?

Ye s

Adjust to within the tolerance limits.

Ye s

Are the parameters confiured correctly at operational conditions?

Configure the parameters correctly.

Go to “8.1 Flow”

F080201.EPS

Ye s

Was a faulty area found with self-diagnostic?

Refer to the error code list and check for recovery measures.

• If a built-in indicator is attached, check the display of the error code.

• Connect a hand-held terminal and check self-diagnostic.

Check the sensor.

Page 80

9-1

IM 01F06A00-01E

9. GENERAL DESCRIPTION

9.1 Outline

This vortex flowmeter measures liquid, gas and steam flow

rates and converts them to a 4 to 20mA DC output or pulse,

alarm, status output signal.

Since the converter is mounted independently from the

flowmeter, it permits remote flow measurements of high

temperature liquid, steam, etc.

■ Integral Type

The Integral Type Vortex Flowmeter (DY-A) has the

converter with the flowmeter, and measures liquid, gas and

steam flow rates and converts them to a 4 to 20mA DC

output or pulse, alarm, status output signal.

F090101.EPS

Flange Type

(built-in indicator)

Wafer Type

Figure 9.1.1 External Views (Integral Type)

■ Remote Type

The Remote Converter Type Vortex Flowmeter (DY-N) is

used with the Model DYA Vortex Flow Converter. A special

cable (DYC) is used between these instruments.

F090102.EPS

Model DYA Vortex flow converter

(built-in indicator)

Model DYC Cable

Model DY-N Vortex flowmeter

Figure 9.1.2 External Views (Remote Type)

• Name of a portion of the flowmeter (Example of the Wafer Type)

F090103.EPS

Cover (long or short)

Converter

Detector

Converter Case

Data Plate

Cover (Short)

Electrical Connection

Bracket

Bolt Hole

Body (Process Connection)

For remote converter type,between Converter and Detector should be connected by remote cable of Model DYC.

Figure 9.1.3 Example of Name of portion

Page 81

9-2

IM 01F06A00-01E

9. GENERAL DESCRIPTION

9.2 Standard Specifications

Refer to GS 01F06F01-01E for Fieldbus communication type, marked with “”.

Performance Specifications

Fluid to be Measured :

Liquid, Gas, Steam (Avoid Multiphase Flow and Sticky Fluids)

Measuring Flow Rates :

Refer to Table 9.5.2

Accuracy : ±0.75% of Reading (Liquid)

±1% of Reading (Gas, Steam)

Refer to P9-15 For the Multi-Variable Type, refer to 9.4.2 term.

Repeatability : ± 0.2% of Reading Calibration :

This flowmeter is factory-calibrated using a water flow. Temperature and flow calibration by water flow when /MV is selected.

Normal Operating Condition

Process Temperature Range :

–29 to 250 °C (general) –196 to 100 °C (Cryogenic Version:option) –29 to 450 °C (High Process Temperature Version:option) For the Multi-Variable Type, refer to 9.4.2 term. Refer to Figure 1 for integral converter type.

Process Pressure Limit :

–0.1MPa (–1 kg/cm

) to flange rating.

Ambient Temperature Range :

–29 to 85 °C (Remote type detector) –40 to 85 °C (Remote type converter) –29 to 85 °C (Integral type, refer to Figure

9.2.1)

–29 to 80 °C (Integral type with Indicator, refer

to Figure 9.2.1)

–30 to 80 °C (Remote type converter with

Indicator)

Ambient Humidity : 5 to 100% RH (at 40 °C)

(No Condensation)

Power Supply Voltage () : 10.5 to 42 V DC

(Refer to Figure 9.2.2 ; Relationship Between Power Supply Voltage and Load Resistance)

Mechanical Specifications

Material (General Type):

Refer to Table 9.3.1

Wetted Parts:

Body; Stainless steel JIS SCS14A,

ASTM CF8M

Shedder Bar; Duplex stainless steel

[equivalent to JIS SUS329J1]

Size 15mm ASTM S31803 Size 25mm to 300mm

DCS1

or EN 1.4517

*1 DCS1 is a registered trademark of Daido

Castings Co., Ltd.

Gasket: JIS SUS316 stainless steel with

Teflon

* coating.

*Teflon® is a registered trademark of E.l. Du Pont

de Nemours & Co.

Non-Wetted Parts:

Housing (Case, Cover):

Aluminum alloy JIS ADC12 Name Plate: Stainless steel JIS SUS304 DYA Mounting Bracket for 2B pipe:

Cold-reduced carbon steel sheet JIS SPCC,

JIS SECC

Coating Color:

Housing:

Polyurethane corrosion-resistant coating

Deep sea moss green (Munsell 0.6GY

3.1/2.0)

DYA Mounting Bracket for 2B pipe:

Polyurethane corrosion-resistant coating

Frosty white (Munsell 2.5Y 8.4/1.2)

Protection:

IP67 immersion proof and dust proof. (NEMA 4X).

Hazardous Area Classifications:

Refer to 9.4 Option Specifications.

Electrical Connection:

JIS G1/2 female, ANSI 1/2 NPT female, ISO M20 × 1.5 female

Signal Cable:

Model DYC cable, used for remote detector and converter. Max. length : 30 m. Outer Sheath Material: Heat resisting polyethylene Durable Temperature : –40 to 150 °C

Weight:

Refer to 9.6 External Dimension.

Mounting:

Integral type and Remote type detector :

Flange mounting or wafer mounting by flange adjacent to the pipeline.

Remote type converter : 2 inch pipe mounting.

Electrical Specifications

Note*: Pulse output, alarm output and status output use

the common terminal, therefore these functions are not used simultaneously.

Output Signal () : Dual Output (Both Analog and

Transistor contact output can be obtained simultaneously). In this case refer to “3: WIRING”.

Analog : 4 to 20 mA DC, 2-wire system. Transistor Contact Output* :

Open collector, 3-wire system. Pulse, alarm, status output are selected by parameter setting. Contact rating: 10.5 to 30 V DC, 120 mA DC Low level: 0 to 2 V DC. (refer to Figure 9.2.3)

Communication Requirements :

Communication Signal :

BRAIN or HART communication signal (superimposed on a 4 to 20 mA DC signal)

Note: HART is a registered trademark of the HART

Communication Foundation.

Conditions of Communication Line :

Load Resistance :

250 to 600 Ω(including cable resistance). Refer to Figure 9.2.2

Supply Voltage :

16.4 to 42 V DC for digital communications BRAIN and HART protocols .(16.4 to 30 V DC for intrinsically safe type). Refer to Figure 9.2.2

Page 82

9-3

IM 01F06A00-01E

9. GENERAL DESCRIPTION

Indicator:

Flow rate (% or engineering units) or temperature value and totalizer can be indicated simultaneously. Short message for self diagnostics indicates. Local parameter setting can be operated by key switches. In mounting direction, the right and left 90° is rotatable.

EMC Conformity Standards:

EN61326-1 Class A, Table 2 (For use in industrial locations), EN61326-2-3 EN55011 Class A Group 1

Note1: This instrument is a Class A product, and it is

designed for use in the industrial environment. Please use this instrument in the industrial environment only.

Note2: Use the metal conduit for the remote cable.

Pressure Equipment Directive:

Notified Body Identification Number 0038 Module H

T090201.EPS

* PS : Maximum allowable pressure for Flow tube, DN : Nominal size **

Refered to Table 6 coverd by ANNEX II of EC Directive on Pressure Equipment Directive 97/23/EC *** DY015 and DY025 are outside the scope of CE marking of PED.

MODEL

DY015

DY025

DY040

DY050

DY080

DY100

DY150

DY200

DY250

DY300

DN(mm)*

100

150

200

250

300

PS(Mpa)*

PS-DN

(Mpa-mm)

630

1050

1680

2100

3360

4200

6300

8400

10500

12600

CATEGORY**

Article 3***,

Paragraph 3

Article 3***,

Paragraph 3

III

BRAIN:

Space from other Power Line: 15cm or

more (Parallel wiring should be avoided.)

Communication Distance :

Up to 2 km, when polyethylene insulated PVC-sheathed cables (CEV cables) are used. Communication distance varies depending on type of cable used.

Load Capacitance: 0.22 µF or less Load Inductance: 3.3 mH or less Input Impedance of Receiver Connected to the Receiving Resistance:

10 kΩ or more at 2.4 kHz.

Functions:

Damping Time Constant :

0 to 99 Sec (63% response time)

Note: Delay time is 0.5 Sec.

Analog output circuit time constant is 0.3 Sec.

Pulse Output Function*:

Pulse output is selected from scaled pulse, unscaled pulse, frequency (number of pulses output per second at 100% of output). Pulse frequency : Max 10 kHz Duty cycles : Approx.50% (1:2 to 2:1)

Self -diagnostics and Alarm Output *:

In case alarm (over range output signal, EEPROM error, vibration noise, abnormal flow such as clogging, bubble) occurs, an alarm signal is output and indicated. The alarm signal output goes from close(ON) to open(OFF) during alarming.

Status Output Function *:

Flow Switch:

In case flow rate decreases under the flow set value, a status signal is output. Status signal output mode can reverse (ON/ OFF) .

Analog Output Function:

Analog output is selected from flowrate temperature value when option code /MV is selected.

Data Security During Power Failure:

Data (parameter, totalizer value, etc) storage by EEPROM. No back-up battery required.

Correction:

Instrument Error Correction:

Vortex flowmeter instrument errors can be corrected by segment approximations.

Reynolds Number Correction:

Output error at Reynolds number 20000 or less is corrected by using five-break-point line-segment approximation.

Gas Expansion Correction:

When measuring a compressibility gas and steam, this expansion factor is useful to correct the error at high velocity of flow (35m/ s or more).

Down-scale or Up-scale burn out.

In case a CPU or EEPROM failure occurs, flow meter output the signal of Up-scale (21.6 mA or more). Up-scale or Down-scale (3.6 mA or less) is user-selectable through the fail mode alarm jumper.

Page 83

9-4

IM 01F06A00-01E

9. GENERAL DESCRIPTION

200

100

-50

-29

100

300

Process Temperature (˚C)

With Indicator

Ambient Temperature (˚C)

-50 250

-29

DYF090201.EPS

Figure 9.2.1 Ambient Temperature limit (Integral Type)

E - 10.5

0.0236

250

600

10.5 16.4 24.7 42

Power Supply Voltage E(V)

(Ω)

Communication

applicable range

BRAIN and HART

Load Resistance

F090202.EPS

Figure 9.2.2 Relationship Between Power Supply

and Load Resistance

HIGH level

LOW level

0 V

0 to 2 V

F090203.EPS

Figure 9.2.3 High and low level (Pulse output)

Page 84

9-5

IM 01F06A00-01E

9. GENERAL DESCRIPTION

DYA Vortex Flowmeter Converter(Remote Type)

DYC Signal Cable

Model Suffix Code Description

DYA

………………………………

Vortex Flowmeter Converter (Remote Type)

Indicator

………………

Options

Output Signal /Communication *1, *12

4 to 20 mA DC, Pulse BRAIN Communication 4 to 20 mA DC, Pulse

HART Communication Digital communication (F

OUNDATION Fieldbus protocol)

JIS G 1/2 Female

ANSI 1/2 NPT Female *6

ISO M20 ×1.5 Female

Cable End Finish Parts 1 set 2 set 3 set 4 set 5 set 6 set 7 set 8 set 9 set Multi-variable Type

-D

…………………………

-E

…………………………

-F

…………………………

Electrical Connection

……………………

/C1

……………………

/C2

……………………

/C3

……………………

/C4

……………………

/C5

……………………

/C6

……………………

/C7

……………………

/C8

……………………

/C9

……………………

/MV

……………………

/ /MV

…………

Model Suffix Code Description

DYC

………………………………

Signal Cable

Cable End

Cable Length

Options

-0

………………………………

-1

………………………………

Without End finish *8 With End finish

5 m 10 m 15 m 20 m 25 m 30 m 35 m 40 m 45 m 50 m 55 m 60 m 65 m 70 m 75 m 80 m 85 m 90 m 95 m

-05

…………………………

-10

…………………………

-15

…………………………

-20

…………………………

-25

…………………………

-30

…………………………

-35

…………………………

-40

…………………………

-45

…………………………

-50

…………………………

-55

…………………………

-60

…………………………

-65

…………………………

-70

…………………………

-75

…………………………

-80

…………………………

-85

…………………………

-90

…………………………

-95

…………………………

* 1 : Nominal size, Fluid(Liquid, Gas, Steam), Density, Viscosity, Pressure, Temperature, Flow range, Parameters are set at the factory before

shipment. * 2 : Refer to Table 9.3.1. In case of /NC or /HX or /HY or /HT or /LT, select X (others). * 3 : In case of B (ASTM, ASME CF8M), the process connection is available

for ANSI (AA1 to 4, BA1 to 5, CA4 to 5) and DIN (BD1 to 4). * 4 : Refer to Table 9.3.1. In case of /NC or /HX or /HY or /HT or /LT, select X (others). * 5 : Refer to Table 9.3.2. * 6 : In case of /FF1 or /CF1, the screw length is deeper than ANSI standard

for 0.5 to 3.5 threads. * 7 : Indicator is not available for remote type detector. * 8 : One set of end finish part is attached. * 9 : DYC cable can be used up to 30m. When you divide the cable below

30m, select the Cable End code [-0]. *10 : In case of A (JIS SCS14A), the process connection is available for JIS

(AJ1, AJ2, AJ4, BJ1, BJ2, BJ4) *11 : In case of an explosion proof type, it depends for an electrical

connecion on the kind of an explosion protect type. Refer to 9.4.3

Option Specification (For Explosion Protected type). *12 : For F

OUNDATION Fieldbus protcol, refer to GS 01F06F01-01E.

For Fieldbus communication type, there are not setting keys on the

display board. *13 : DYA-첸첸첸 / MV and DY첸첸첸 -N*** / MV should be combined. *14 : Users must consider the characteristics of selected wetted parts material

and the influence of process fluids. The use of inappropriate materials

can result in the leakage of corrosive process fluids and cause injury to

personnel and/or damage to plant facilities. It is also possible that the

instrument itself can be damaged and that fragments from the

instrument can contaminate the user's process fluids.

Be very careful with highly corrosive process fluids such as hydrochloric

acid, sulfuric acid, hydrogen sulfide, sodium hypochlorite, and high-

temperature steam (150°C [302°F] or above). Contact Yokogawa for

detailed information of the wetted parts material.

With Indicator None Indicator

Refer to Option Specifications Multi-Variable Type *13

T090302.EPS

9.3 Model and Suffix Codes

/䊐

…………………

Model Suffix Codes Description

DY015 DY025 DY040 DY050 DY080 DY100 DY150 DY200 DY250 DY300

…………………………… …………………………… …………………………… …………………………… …………………………… …………………………… …………………………… …………………………… …………………………… ……………………………

Size 15 mm (1/2 inch) Size 25 mm (1 inch) Size 40 mm (1-1/2 inch) Size 50 mm (2 inch) Size 80 mm (3 inch) Size 100 mm (4 inch) Size 150 mm (6 inch) Size 200 mm (8 inch) Size 250 mm (10 inch) Size 300 mm (12 inch)

Output Signal /Communication *1, *12

4 to 20 mA DC, Pulse, BRAIN Communication 4 to 20 mA DC, Pulse, HART Communication Digital communication (F

OUNDATION

Fieldbus protocol)

Remote type detector

Process Connection

RF : Raised Face SF : Smooth Finish RJ : Ring Joint

JIS 10 K Wafer JIS 20 K Wafer JIS 40 K Wafer ANSI Class 150 Wafer ANSI Class 300 Wafer ANSI Class 600 Wafer DIN PN10 Wafer DIN PN16 Wafer DIN PN25 Wafer DIN PN40 Wafer JIS 10K Flange(RF) JIS 20K Flange(RF) JIS 40K Flange(RF) ANSI Class 150 Flange(RF) ANSI Class 300 Flange(RF) ANSI Class 600 Flange(RF) ANSI Class 900 Flange(RF) ANSI Class 150 Flange

(

RF,

SF)

ANSI Class 300 Flange(RF,

SF)

ANSI Class 600 Flange(RF,

SF)

ANSI Class 900 Flange(RF,

SF) DIN PN10 Flange(RF) DIN PN16 Flange(RF) DIN PN25 Flange(RF) DIN PN40 Flange(RF) ANSI Class 600 Flange(RJ) ANSI Class 900 Flange(RJ)

AJ1

….………..…

AJ2

….………..…

AJ4

….………..…

AA1

….………..…

AA2

….………..…

AA4

….………..…

AD1

….………..…

AD2

….………..…

AD3

….………..…

AD4

….………..…

BJ1

….………..…

BJ2

….………..…

BJ4

….………..…

BA1

….………..…

BA2

….………..…

BA4

….………..…

BA5

….………..…

BS1

….………..…

BS2

….………..…

BS4

….………..…

BS5

….………..…

BD1

….………..…

BD2

….………..…

BD3

….………..…

BD4

….………..…

CA4

….………..…

CA5

….………..…

JIS G 1/2 Female ANSI 1/2 NPT Female *6 ISO M201.5 Female

………..........

……….......…

-4……….......…

Electrical Connection *11

D ………...…

N ……..........

DY Vo rtex Flowmeter (Integral Type, Remote type detector)

-D

…………………………

-E

…………………………

-F

…………………………

-N

…………………………

Body Material *2, *14

………………………

JIS SCS14 A *10 ASTM, ASME CF8M *3 Others

Shedder bar Material *4, *14

Duplex stainless steel Duplex stainless steel

(for TIIS Approval)

Others

Indicator *7

Options

With Indicator None Indicator, Remote type detector

Refer to Option Specifications

T090301.EPS

Page 85

9-6

IM 01F06A00-01E

9. GENERAL DESCRIPTION

Table 9.3.1 Body, Shedder bar, Gasket Material

DY015

DY025

DY040

DY050

DY080

DY100

(Note 1) In case of the suffix code of the body material is A, the code of the process connection is for one of AJh, AJh, BJh, APh or BPh. In case of the code B, process connection code is for one of AAh, BAh, BSh, CAh, ADh or BDh. (Note 2) In case of optional specifications code “/HY”, “/HT”, “/LT” and “/NC”, select “X” for both body material code and shedder bar material code. (Note 3) The combination of “/LT” and “Rh” is not available.

JIS SCS14A

ASTM CF8M

(Note 2)

JIS SCS14A ASTM CF8M

(Note 2)

DIN1.4308

(JIS SACS13)

(Note 2)

JIS SCS14A ASTM CF8M

Standard

(Note 1)

Anti-corrosion

version II (/HY)

(Note 2)

High process

temperature version

(/HT) (Note 2)

Cryogenic

version (/LT)

(Note 2) (Note 3)

Body Material

DY015

DY025

DY040

DY050

DY080

DY100

DY150

DY200

DY250

DY300

DY025/R1

DY040/R1

DY050/R1

DY080/R1

DY100/R1

DY150/R1

DY200/R1

––

DY040/R2

DY050/R2

DY080/R2

DY100/R2

DY150/R2

DY200/R2

––

ASTM CF8M

Compliance with

NACE (/NC)

––

Gasket material

(Note 1) Select body code [X] and shedder bar code [X] for /HY, /HT, /LT and /NC. (Note 2) Select shedder bar code [E] in case of TIIS Flame proof type (/JF3) and general specification for DY025 to DY100. Select [L] for other normal sizes. The combination of /JF3 and /HY, /HT, /LT and NC, select [X] according to Note 1. (Note 3) The combination of “/LT” and “Rh” is not available.

ASTM S31803

EN1.4517

(Note 2)

DCS1

EN1.4517

ASTM N10276

ASTM CW-12MW

ASTM N10276

Standard

Anti-corrosion version II (/HY)

(Note 1)

High process

temperature version

(/HT)

(Note 1)

Cryogenic

version (/LT)

(Note 1) (Note 3)

TIIS Flame proof

approval (/JF3)

Shedder bar material

DY015

DY025

DY040

DY050

DY080

DY100

DY150

DY200

DY250

DY300

DY025/R1

DY040/R1

DY050/R1

DY080/R1

DY100/R1

DY150/R1

DY200/R1

––

DY040/R2

DY050/R2

DY080/R2

DY100/R2

DY150/R2

DY200/R2

––

ASTM CW-12MW

ASTM N10276

Compliance with

NACE (/NC)

(Note 1)

Compliance with

NACE (/NC)

––

JIS SUS316

stainless steel

with polytetra-

fluoroethylene

(Teflon) coating

JIS SUS316 stainless steel with polytetra-

fluoroethylene

(Teflon) coating

JIS SUS316

stainless steel

with polytetra-

fluoroethylene

(Teflon) coating

JIS SUS316 stainless steel with polytetra-

fluoroethylene

(Teflon) coating

JIS SUS316

stainless steel

plated with silver

Standard

Anti-corrosion

version II (/HY)

High process

temperature version

(/HT)

Cryogenic

version (/LT)

(Note 1)

DY015

DY025

DY040

DY050

DY080

DY100

DY150

DY200

DY250

DY300

DY025/R1

DY040/R1

DY050/R1

DY080/R1

DY100/R1

DY150/R1

DY200/R1

––

DY040/R2

DY050/R2

DY080/R2

DY100/R2

DY150/R2

DY200/R2

––

Upper: Material Code Lower: Material Name

(Note 1) The combination of “/LT” and “Rh” is not available.

FlangeWafer

DY015

DY025

DY040

DY050

DY080

DY100

FlangeWafer

DY015

DY025

DY040

DY050

DY080

DY100

FlangeWafer

T090303.EPS

Page 86

9-7

IM 01F06A00-01E

9. GENERAL DESCRIPTION

Table 9.3.2 Flowmeter Selection Guide

DYF Tab-04

(Note)

• ANSI standardized types are worked by serration finishing except the Smooth Finish type.

• Refer to “OPTION REDUCED BORE TYPE (/R1, /R2)” (P.11), when you select reduced bore type (/R1, /R2).

DY015 up to

DY100

DY015 up to

DY100

DY015 up to

DY100

DY015 up to

DY100

DY015 up to DY200 DY015 up to DY200

DY015 up to DY150

DY015 up to DY200 DY015 up to DY200

DY015 up to DY200

——

DY015 up to

DY100

DY015 up to

DY100

DY015 up to

DY100

DY015 up to

DY100

DY015 up to

DY100

DY015 up to

DY100

—

DY015 up to

DY200

DY015 up to

DY200

—

DY015

up to

DY300

DY025-/R1

up to

DY200-/R1

DY040-/R2

up to

DY200-/R2

DY015

up to

DY300

DY025-/R1

up to

DY200-/R1

DY040-/R2

up to

DY200-/R2

DY015

up to

DY300

DY025-/R1

up to

DY200-/R1

DY040-/R2

up to

DY200-/R2

DY015

up to

DY300

DY025-/R1

up to

DY200-/R1

DY040-/R2

up to

DY200-/R2

DY015

up to

DY300

DY025-/R1

up to

DY200-/R1

DY040-/R2

up to

DY200-/R2

DY015

up to

DY300

DY025-/R1

up to

DY200-/R1

DY040-/R2

up to

DY200-/R2

Wafer Flange(Raised Face) Flange(Ring Joint) Flange(Raised Face, Smooth Finish)

Process

Connection

Suffix

Code

Suffix Code

Model Code Model Code Model CodeModel Code

AJ1JIS 10 K

JIS 20 K

JIS 40 K

ANSI Class 150

ANSI Class 300

ANSI Class 600

ANSI Class 900

DIN PIN 10

DIN PIN 16

DIN PIN 25

DIN PIN 40

AJ2

AJ4

AA1

AA2

AA4

AD1

AD2

AD3

AD4

BA5

BJ1

BJ2

BJ4

BA1

BA2

BA4

BD1

BD2

BD3

BD4

Suffix Code

CA5

—

CA4

—

Suffix Code

BS5

—

BS1

BS2

BS4

—

Page 87

9-8

IM 01F06A00-01E

9. GENERAL DESCRIPTION

9.4 Option Specifications

9.4.1 Option Specifications

DY***-D,E / DYASet output 3.6mA or less when burn-out occurred.

Converter installing direction 180ⴗ change inversely when shipped.

DY / DYA

Compliance with NAMUR43. Current signal for measurement is 4mA up to

20.5mA. Set output 3.6mA or less when burn-out occurred.

DY***-D,E / DYA

There is an arrester inside converter for power supply line. Maximum power supply voltage : 30VDC

Test pressure value is in accordance with Table 9.4.2. Test time: 10 minutes. Available for the general type. Test medium: Water.

Wafer Type

JIS SUS304 bolt/nut assembly. Used when a wafer type is installed.

Integrated and welded construction with concentric reduced bore piping. R1 : Detector size is one meter body size down of digitalYEWFLO to flange pipe size.

R2 : Detector size is two meter body size down of digitalYEWFLO to flange pipe size.

Test pressure value is in accordance with Table 9.4.2. Test time: 10 minutes. Available for the general type. Test medium: Air, Nitrogen or Water.

DYAThe bracket material for remote converter type (DYA) is JIS SUS304.

Anti-corrosion Version II. Refer to Table 9.3.1.

Compliance with NACE. Refer to Table 9.3.1.

DY / DYA

Epoxy coating for case and cover.

DYDegrease cleansing treatment.

DY / DYA

Only for the covers: See refer to Table 9.4.1

DY / DYAJIS SUS304 tag plate, hung on the case.

DY / DYA

Build in Temperature sensor (Pt 1000 ) in vortex shedder bar.

T090401.EPS

DY / DYA

DY / DYA, / JF3

G11

CRC

G12

Level 2 Declaration and Calibration Equipment List

Level 3 Declaration and Primary Standard List

Level 4 Declaration and YOKOGAWA Measuring

Calibration Certificate

Flameproof Packing Adapter

Power source connection port and signal cable (remote type) connection port. JIS G1/2 female thread. Other cable shape: ø 8 to ø 12. G11 : One piece, G12 : Two pieces.

DY***-N LT

DY***-N HT

Cryogenic Version

High Process Temperature Version (Note 7)

This specification temperature is from -196 to +100 ⴗC Refer to Table 9.3.1 , Figure 9.4.2. In case of another size, please contact to YOKOGAWA sales person.

For Liquid and Steam (NOT for Gas) This specification temperature is from -29 to +450 ⴗC Refer to Table 9.3.1 , Figure 9.4.1. Refer to Table 9.5.1 for minimum velocity. In case of another size, please contact to YOKOGAWA sales person.

Down-scale burn-out in CPU or EEPROM failure (Note 3)

DY***-N / DYA

Converter housing, case and cover material: JIS SCS14A or ASTM CF8M stainless steel castings. (equvalent to JIS SUS316)

E1Stainless steel housing (Note 9)

Converter Installing Direction 180 Change (Note4)

NMCompliance with NAMUR (Note 6)

ALightning Protector

T02Hydrostatic Test Certificate

DY, DYA

Epoxy and Polyurethane coating for the purpose of corrosion - proof improvement; salt damage, alkali, climate and acidity

X2Pilling up coating to keep off corrosion

BLStainless Steel Bolt & Nut Assembly

T01Hydrostatic / Pneumatic Test Certificate

Stainless Steel Bracket for Remote Conveter (DYA)

Anti-corrosion Version II

NCCompliance with NACE

X1Epoxy Coating

K1Degrease Treatment (Note 2)

See Table8Paint Color Change

SCTStainless Steel Tag Plate (Note 1)

Multi-Variable Type (Note 5)

Reduced bore type (Note 8) See 9.4.3

Item Specification Applicable Model Code

Page 88

9-9

IM 01F06A00-01E

9. GENERAL DESCRIPTION

Item

Specification

Code

(Note 1) The specified Tag Number is engraved on the data plate and stainless tag plate. The limitation of characters for Tag Number is, for BRAIN Terminal or name plate, stainless steel tag plate: 16 characters, and for HART Configuration Tool: 8 characters. (Note 2) There is a case that calibration water should stay in the meter tube. So this is not degrease treatment in the strict sense. (Note 3) The output is set 3.6mA or less (General type is set 21.6mA or more at shipping). (Note 4) The electrical connection turn to a downstream side. (Note 5) Refer to “OPTION MULTI-VARIABLE (BUILD IN TEMPERATURE SENSOR) TYPE (/MV)” (see 9.4.2) In case of Remote type detector (DY***-N), select “/MV” both DY and DYA. (Note 6) /NM can not combine with Remote type (DY***-N). (Note 7) SAA Flame proof Appreval (/SF1) can not combine with High Process Temperature Version (/HT). (Note 8) • Cryogenic version (/LT) is not available.

• High process temperature version (/HT) and Multi-variable type (/MV) for DY025/R1 and DY040/R2 are not available.

• Explosion protected type SAA (/SF1,/SS1) is not available.

• Flange type only and available process connections are JIS10k, 20k (BJ1, BJ2) and ANSI150, 300 (BA1,BA2,BS1,BS2).

• Model Code size means “DY***-” nominal size. (Note 9) • Applicable for option code /FF1, /FS1, /KF1, /KS1 and /KN1.

• Not applicable for option code: /P1, /P2, /P7, /X1, /X2, /HT, /LT, /SB, /JF3, /CF1, /CS1, /CF11, /CS11, /SF1, /SS1.

• The materials of exterior parts, name plate, screw, bolts on the stainless steel housing and bracket, u-bolt, nuts for DYA/E1 and tag plate for /E1/SCT are JIS SUS316 or SUS316L.

Applicable Model

T090402.EPS

Each certificate to be attached produced by the vendors.

1. Meterbody

1. Meterbody, 2. Shedder bar

1. Meterbody, 2. Shedder bar, 3. Bottom plug

1. Meterbody, 2. Shedder bar, 3. Bottom plug, 4. Welding rod

Each certificate to beattached produced by the vendors.

1. Meterbody

1. Meterbody, 2. Shedder bar

1. Meterbody, 2. Shedder bar, 3. Bottom plug

1. Meterbody, 2. Shedder bar, 3. Bottom plug, 4. Welding rod

Positive Material Identification certificate to be attached for the main 3 chemical components of specified materials. Each certificate to be attached.

1. Meterbody

1. Meterbody, 2. Shedder bar

1. Welder/Welding Operator Performance Qualification (or Welder Qualification Record)

2. Welding Procedure Specification (WPS)

3. Procedure Qualification Record (PQR)

Each certificate to be submitted. The customer’s name and job name to be specified when ordered.

1. Welded portion for the bottom plug

2. Welded portion for the flange in case of the welding construction

Material certificates: Mill sheets

Material certificates: EN10204 3.1

PAMI test certificate

ASME welding documents submission

Liquid Penetrant test certificate

Item to be specified

M01

M02

M03

M04

E01

E02

E03

E04

PM1

PM2

1. Welded portion for the bottom plug

2. Welded portion for the flange in case of the welding

construction

Dye Penetrant test certificate for the welded portion to be attached. Each certificate to be attached.

2. is for DY250 and DY300.

Table 9.4.1 Paint Color and Codes

CodesP1Munsell Renotation Code

N1.5

Color

Black

P2 7.5BG4/1.5 Jade green

P7 Metallic silver

T090405.EPS

Table 9.4.2 Test Pressure Value

Pressure

2.1 MPa

5.0 MPa

2.9 MPa

Flange Rating

JIS 10 K

JIS 20 K

ANSI Class 150

7.5 MPa

ANSI Class 300

10.0 MPa

JIS 40 K

14.9 MPa

ANSI Class 600

22.4 MPa

ANSI Class 900

1.5 MPa

3.8 MPa

DIN PN 10

DIN PN 25

5.9 MPa

DIN PN 40

2.4 MPa

DIN PN 16

T090406.EPS

–29 +100 +200 +300 +450

+85

+60

–29

Fluid temperature (˚C)

Ambient temperature (˚C)

Operating range

F090401.EPS

Figure 9.4.1 Fluid temperature range of high process

temperature version

–196 –

100

–29

–50

–20

Fluid temperature (˚C)

Ambient temperature (˚C)

Operating range

100

F090402.EPS

–29

Figure 9.4.2 Fluid temperature range of cryogenic version

Page 89

9-10

IM 01F06A00-01E

9. GENERAL DESCRIPTION

9.4.2 Option Multi-Variable (Build in Temperature Sensor) Type (/MV)(*1)

This option is the same as standard specification except the following items.

T090403.EPS

Size

Function

Fluid

Temperature Range

Accuracy

(*2)

Temperature Response

(50% response)

Mass Flow Calculation

Method

Output

Display

Remote Type

Mass

Flow

Temperature

Analog Output

Pulse Output

Alarm Output

StatusOutput

Upper

Lower

Standard Type

15mm to 100mm

15mm to 300mm

Liquid, Gas

Saturated Steam

Superheat Steam

–29 to 250ⴗC

Only for Flow Rate

Only for Standard

Flow Switch

Only for Flow Rate

Only for Total Rate

Liquid, Gas

Saturated Steam

Superheat Steam

Only for indication

and output

Mass Flow calculation.

(Volumetric flowrate at Standard condition for GAS)

Multi-variable Type

Saturated Steam

Superheat Steam

Gas Liquid

–29 to 250ⴗC 100 to 250ⴗC 100 to 250ⴗC –29 to 250ⴗC –29 to 250ⴗC

Select from Flow rate or temperature (*7)

Only for Flow rate

Standard AlarmError of thermometer etc.

Only for Flow Switch

Select from Flow rate (%,Engineering Unit) or Temperature (%) (*8)

Select from Total Rate or temperature ( C, F) (*9)

Flow Converter : Select DYA-ⵧⵧⵧ/MV

Signal Cable : Select DYC-ⵧⵧⵧ/MV (*10)

60sec

(Churning Underwater)

Wafer Type

Flange Type

25mm to 100mm

25mm to 200mm

±0.5%

OF RATE

±1%

OF RATE

±1ⴗC

(Less than 100ⴗC)

±1% OF RATE

(100ⴗC or more)

±0.5ⴗC

(Less than 100ⴗC)

±0.5% OF RATE

(100ⴗC or more)

Density Calculation

(*3)

Density Calculation

(Constant pressure is

assumed)

(*4)

Temp.-Pressure

Correction

(

Constant pressure is

assumed

)

(*5)

Density change

Calculation

(*6)

Refer to “Detailed Accuracy” (See P.9-15)

(*1) When /MV is chosen, /HT, /LT is not available.

(*2) Measurement temperature is changed by the heat-insulation method of piping and piping method. Refer to 2.2 Piping, about heat-insulation

(P.2-3). In case of the Mass Flow measurement of saturated steam and superheat steam, it is necessary to make a heat-insulation.

(*3) Mass Flow rate is calculated from density values by temperature measurement using saturated steam table.

(*4) Mass Flow rate is calculated from density values to temperature measured by using steam table. In order to measure superheated steam, it

is necessary to make constant pressure value. A pressure values which is indicated by order sheet is used.

(*5) In order to measure gas, Pressure-Temperature correction is carried out. It is necessary to make constant pressure value.

A pressure values at operational condition, temperature and pressure value at standard condition which is indicated by order sheet is used.

(*6) In order to measure mass flowrate of liquid application, the density at normal condition is used, and if fluid temperature deviates from normal

temperature density values is calculated by 2 dimensional equation. In this case, temperature coefficient should be prepared by user’s side.

(*7) Default setting is Flow rate. It is necessary to change the parameter of output in case of setting temperature output.

(*8) In case of indicating the temperature %, the display indicate not only “%” but also “t” . ( “t” is the means of temperature)

(*9) Default setting is “temperature” but “Total “ is setup when ordering the Total Rate.

(*10) For the Remote Type (DY***-N/MV), be sure to set the parameter of cable length for DYA, Remote Type converter.

Page 90

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9. GENERAL DESCRIPTION

9.4.3 OPTION REDUCED BORE TYPE (/R1) (*1)

This option is the same as standard specification except the following items.

(Note 1) For detailed accuracy, see “SIZING”. Not available for /LT. Not available for /SF1, /SS1 (Note 2) Flange type only: JIS10K,20K (BJ1,BJ2) and ANSI150,300 (BA1,BA2,BS1,BS2) MS Code [*] of “DY***-” means flange piping size. (Note 3) High process temperature version (/HT) and Multi-variable type (/MV) for DY025/R1 and DY040/R2 are not available.

T10-1.EPS

Model Code (Note 2)

Measurable minimum flow velocity

Range of measurable flow velocity

Reduced bore type (Option Code: /R1, /R2)

Flange piping size

(A)

DY025

DY040

DY050

DY080

DY100

DY150

DY200

R1 Detector size

(inner dia.) (B)

15 (14.6) (mm) (Note 3)

25 (25.7) (mm)

40 (39.7) (mm)

50 (51.1) (mm)

80 (71) (mm)

100 (93.8) (mm)

150 (138.8) (mm)

R2 Detector size

(inner dia.) (B)

15 (14.6) (mm) (Note 3)

25 (25.7) (mm)

40 (39.7) (mm)

50 (51.1) (mm)

80 (71) (mm)

100 (93.8) (mm)

Refer to table 9.5.1.

Refer to table 9.5.2.

[Pressure Loss] R1: about 15% increases to standard type. R2: about 28% increases to standard type. see P.9-18

Page 91

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9. GENERAL DESCRIPTION

9.4.4 Option Specifications (For Explosion Protected Type)

Code

Specification

Item

TIIS Certification

TIIS Flame proof Approval (Note 1)

Flame proof Ex d IIC T6 Certified by TIIS. (TIIS is the abbreviation of Technology Institution of Industrial Safety.) Amb. Temp: –20 to 60°C Electrical connection: JIS G1/2 female

FM Intrinsically safe Approval (Note 2)

Applicable Standard: FM3600 1998, FM3610 1999, FM3611 2004, FM3810 2005,

Including Supplement 1 1995, ANSI/NEMA 250 1991, ISA-S12.0.01 1998

Type of Protection : Intrinsically Safe for Class I, II, III, DIV.1, Groups A, B, C, D, E, F and G, T4,

and Class I, Zone 0, AEx ia IIC T4 Nonincendive for Class I, II, Div.2, Groups A, B, C, D, F and G, Class III, DIV.1, T4,

and Class I, Zone 2, Groups IIC, T4

Ambient Temperature : –29 to +60ⴗC (Integral Type Flowmeter)

–29 to +80ⴗC (Remote Type Flowmeter)

–40 to +60ⴗC (Remote Type Converter)

Maximum Working Pressure : 16MPa (DY015 to DY200)

5MPa (DY250 and DY300) Indoors and Outdoors : NEMA Type 4X Electrical Parameter : Vmax=30Vdc, Imax=165mAdc, Pi=0.9W, Ci=12nF, Li=0.15mH

Electrical Connection : ANSI 1/2NPT female

FM Explosion proof Approval

Applicable Standard: FM3600 1998, FM3611 1999, FM3615 2006, FM3810 1989,

Including Supplement 1 1995, ANSI/NEMA 250 1991

Type of Protection : Explosion proof for Class I, Division 1, Groups A, B, C and D;

Dust-ignitionproof for Class II/III, Division 1, Groups E, F, and G. "SEAL ALL CONDUITS WITHIN 18 INCHES." "WHEN INSTALLED IN DIV.2,

SEALS NOT REQUIRED." Enclosure Rating : NEMA Type 4X Temperature Code : T6 Ambient Temperature : –29 to +60°C (Integral Type Flowmeter and Remote Type Flowmeter)

–40 to +60°C (Remote Type Converter)

Maximum Working Pressure : 16MPa (DY015 to DY200)

5MPa (DY250 and DY300)

Electrical Connection : ANSI 1/2NPT female

Factory Mutual (FM)

T090407.EPS

CENELEC ATEX(KEMA) Intrinsically safe Approval (Note 2)

Applicable Standard : EN50014: 1997+A1, A2, EN50020: 2002

EN50284: 1999

Type of protection : EEx ia IIC T4...T1(Integral Type Flowmeter and Remote Type Flowmeter)

EEx ia IIC T4(Remote Type Converter) Group : II Category : 1G Degree of Protection of Enclosure : IP67 Maximum Working Pressure : 16MPa (DY015 to DY200)

5MPa (DY250 and DY300)

Tamb. : –29 to +60°C (Integral Type Flowmeter) –29 to +80°C (Remote Type Flowmeter) –40 to +60°C (Remote Type Converter) Process temp.: T4;135°C, T3;200°C, T2 (*);300°C, T1(*); 450°C

(*: Use /HT version above 250°C)

Electrical data:

Supply and Output Circuit (SUPPLY + and -, PULSE + and -); Maximum Input Voltage Ui: 30 V Maximum Input Current Ii: 165 mA Maximum Input Power Pi: 0.9 W Internal Capacitance Ci: 6nF Internal Inductance Li: 0.15mH For connection of DYA and DY-N Maximum capacitance of cable: 160nF

Electrical connection : ANSI 1/2NPT female, ISO M20 × 1.5 female.

CENELEC ATEX(KEMA) Explosion proof Approval

Applicable Standard : EN50014: 1997, EN50018: 2000, EN61010-1: 1993 Type of protection : EExd IIC T6...T1(Integral Type Flowmeter and Remote Type Flowmeter)

EExd IIC T6 (Remote Type Converter) Group : II Category : 2G Process temp.: T6; 85°C, T5;100°C, T4;135°C, T3;200°C, T2 (*);300°C, T1 (*);450°C

(*: Use /HT version above 250°C)

Degree of Protection of Enclosure : IP67 Tamb: –29 to +60°C (Integral Type Flowmeter and Remote Type Flowmeter) –40 to +60°C (Remote Type Converter)

–30 to +60°C (Remote Type Converter with indicator)

Maximum working Pressure : 16MPa (DY015 to DY200)

5MPa (DY250 to DY300)

Electrical Connection : ANSI 1/2 NPT female, ISO M20 × 1.5 female.

CENELEC ATEX (KEMA)

KF1

KS1

FS1

FF1

JF3

Page 92

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IM 01F06A00-01E

9. GENERAL DESCRIPTION

KN1

CENELEC ATEX (KEMA)

Canadian Standards Association (CSA)

Code

CSA Explosion proof Approval

Applicable Standard: C22.1-98, C22.2 No.0-M1991, C22.2 No.0.4-04, C22.2 No. 0.5-1982,

C22.2 No. 25-1966, C22.2 No. 30-M1986, C22.2 No. 94-M1991,

C22.2 No. 142-M1987, C22.2 No. 61010-1-04, ANSI/ISA-12.27.01-2003 Type of Protection : Explosionproof for Class I, Groups B, C and D;

Class II, Groups E, F, and G; Class III. For Class I, Division 2 location:

"FACTORY SEALED, CONDUIT SEAL NOT REQUIRED" Enclosure : Type 4X Temperature Code : T6...T1 (Integral Type Flowmeter and Remote Type Flowmeter)

T6 (Remote Type Converter)

Amb.Temp. : –29 to +60°C (Integral Type Flowmeter and Remote Type Flowmeter)

–40 to +60°C (Remote Type Converter) Process temp. : T6;85°C, T5;100°C, T4;135°C, T3;200°C, T2;300°C, T1; 450°C

Maximum working Pressure : 16MPa (DY015 to DY200)

5MPa (DY250 and DY300)

Electrical Connection: ANSI 1/2 female (Special)

CSA Explosion proof Approval

• The approval specification is the same with /CF1.

• Process Sealing Certification Dual Seal Certified by CSA to the requirement of ANSI/ISA 12.27.01 No additional sealing required

CSA Intrinsically safe Approval (Note 2)

Applicable Standard: C22.2 No. 0.4-2004, C22.2 No. 157-M1987, C22.2 No. 213-M1987, C22.2 No. 1010.1-92,

CAN/CSA-E60079-0:02, CAN/CSA-E60079-11:02, CAN/CSA-E60079-15:02 ANSI/ISA-12.27.01-2003

Type of Protection : Ex ia IIC T4...T1 and Ex nC IIC T4...T1(Integral Type Flowmeter and Remote Type

Flowmeter) Ex ia IIC T4 and Ex nC IIC T4(Remote Type Converter)

Temperature Class.: T4;135°C, T3;200°C, T2;300°C, T1;450°C (Integral Type Flowmeter and Remote

Type Flowmeter)

Amb. Temp. : –29 to +60°C (Integral Type Flowmeter and Remote Type Flowmeter)

–40 to +60°C (Remote Type Converter) Amb. Hum. : 0 to 100%RH (No condensation)

Degree of Protection of Enclosure:IP67 Electrical Parameters:Ui=30Vdc, Ii=165mAdc, Pi=0.9W, Ci=12nF, Li=0.15mH.

Intrinsically Safe for Class I, II, III, DIV.1, Groups A, B, C, D, E, F and G Non-incendive for Class I, II, DIV.2, Groups A, B, C, D, E, F and G, ClassIII, DIV.1. Temperature Code : T4;135°C, T3; 200°C, T2; 300°C, T1; 450°C (Integral Type Flowmeter and Remote

Type Flowmeter) T4;135°C (Remote Type converter)

Enclosure : Type 4X Electrical Parameter:Vmax =30Vdc, Imax =165mAdc, Pmax = 0.9W, Ci =12nF, Li = 0.15mH. Maximum working Pressure : 16MPa (DY015 to DY200)

5MPa (DY250 and DY300)

Electrical Connection: ANSI 1/2 NPT female

CSA Intrinsically safe Approval

• The approval specification is the same with /CS1.

• Process Sealing Certification Dual Seal Certified by CSA to the requirement of ANSI/ISA 12.27.01 No additional sealing required

T090408.EPS

CF1

CF11

CS1

CS11

CENELEC ATEX (KEMA) Type n Approval

Applicable Standard: EN60079-15: 2005, IEC60079-0: 2004, IEC60079-11: 1999, EN60529: 1991

Type of Protection : EEx nL IIC T4...T1 (Integral Type Flowmeter and Remote Type Flowmeter)

EEx nL IIC T4 (Remote Type Converter) Group : II Category : 3G Degree of Protection of Enclosure: IP67 Maximum Working Pressure : 16MPa (DY015 to DY200)

5MPa (DY250 and DY300)

Ambient Temperature: -29 to +60°C (Integral Type Flowmeter) : -29 to +80°C (Remote Type Flowmeter) : -40 to +60°C (Remote Type Converter) Process Temp.: T4; 135°C, T3; 200°C, T2(*); 300°C, T1(*); 450°C

(*: Use /HT version above 250°C) Electrical data: Supply and Output Circuit (SUPPLY + and -, PULSE + and -); Maximum Input Voltage Ui: 30 V Internal Capacitance Ci: 6nF Internal Inductance Li: 0.15mH Maximum Capacitance of Cable :160nF

Electrical Connection : ANSI 1/2 NPT female, ISO M20 X 1.5 female.

Item

Specification

Page 93

9-14

IM 01F06A00-01E

9. GENERAL DESCRIPTION

Code

Specification

Item

T090408-1.EPS

SAA Flame proof Approval

Applicable Standard: AS 2380.1-1989, AS2380.2-1991, AS1939-1990 Type of protection: Ex d IIC T6...T1, IP67, Class 1, Zone 1 Amb.Temp.: –29 to +60°C (Integral Type Flowmeter and Remote Type Flowmeter)

: –40 to +60°C (Remote Type Converter)

Max. process temp. : T6; 85°C, T5; 100°C, T4; 135°C, T3; 200°C, T2; 300°C, T1;450°C

Electrical connection: ANSI 1/2 NPT female, ISO M20 X 1.5 female

SAA intrinsically Safe Approval (Note 2) SAA Type n Approval

Applicable Standard: AS 2380.1-1989, AS2380.7-1987, AS2380.9-1991, AS1939-1990 Type of Protection: Ex ia IIC T4 IP67 (Integral Type Flowmeter, Remote Type Flowmeter and Remote

Type Converter) Maximum Input Voltage (Ui)=30Vdc Maximum Input Current (Ii)=165mAdc Maximum Input Power (Pi)=0.9W Internal Capacitance (Ci)=37nF Internal Inductance (Li)=0mH Ambient Temperature: –20 to +60°C

Type of Protection: Ex n IIC T4 IP67 (Integral Type Flowmeter, Remote Type Flowmeter and Remote

Type Converter) Hazardous Area: Class I, Zone 2 Maximum Input Voltage (Ui)=30Vdc Ambient Temperature: –20 to +80°C

Electrical connection: ANSI 1/2 NPT female, ISO M20  1.5 female

Standards Association of Australia (SAA) (Note3)

Standards Association of Australia (SAA)

SS1

SF1

(Note 1) The flameproof packing adapter (/G11,G12) is necessary except the electrical conduit work. In case the ambient temperature

exceeds 50deg.C, use heat resistant cables with maximum allowable temperature of 70deg.C or above. (Note 2) For intrinsically safe approval, use the barrier certified by the testing laboratories (BARD-400 is not applicable). (Note 3) SAA Flame proof Approval (/SF1) can not combine with High Process Temperature Version (/HT).

Page 94

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9. GENERAL DESCRIPTION

9.5 Sizing

The following items are the basic specifications. In case of the definite sizing, it is necessary to check by the sizing software.

■ Measurable minimum flow velocity

Table 9.5.1 Relationship between Minimum Velocity and

Density (In case of “Gas, Steam”, Use the Large of the Two Values)

Liquid

Gas, Steam Steam

ρ : Density at operating conditions (kg/m

)

Liquid density is 400 up to 2000kg/m

(Note) Reduced bore type (/R1 and /R2) are not available to combine for Cryogenic type (/LT.)

––

490/ρ

302.5/ρ

160/ρ

202.5/ρ

––

Model

Code

DY015

DY025

DY040

DY050

DY080

DY100

DY150

DY200

DY250

DY300

DY025-/R1

DY040-/R1

DY050-/R1

DY080-/R1

DY100-/R1

DY150-/R1

DY200-/R1

––

DY040-/R2

DY050-/R2

DY080-/R2

DY100-/R2

DY150-/R2

DY200-/R2

––

125/ρ or 2

90.3/ρ or 2

61.3/ρ or 2

61.3/ρ or 3

80/ρ or 3

––

250 /ρ

122.5/ρ

90/ρ

122.5/ρ

160/ρ

80/ρ or 3

45/ρ or 2

31.3/ρ or 2

31.3/ρ or 3

45/ρ or 3

61.3/ρ or 3

DYF Tab-10

General

Type,

Cryogenic

Type

(unit: m/s)

(Note)

High

Process

Temperature

Version

(unit: m/s)

General

Type,

Cryogenic

Type

(unit: m/s)

(Note)

High

Process

Temperature

version

(unit: m/s)

■ Range of measurable flow velocity

Table 9.5.2 Range of measurable flow velocity

When the flow velocity is lower than minimum, both the analog output and the pulse output is displayed as zero “0”.

Fluid

Liquid

Gas,

Steam

Model Code

DY015

up to

DY300

DY015

up to

DY300

DY025-

/R1

up to

DY200-

/R1

DY025-

/R1

up to

DY200-

/R1

DY040-

/R2

up to

DY200-

/R2

DY040-

/R2

up to

DY200-

/R2

Maximum

flow

velocity

(Note)

10 m/s

80 m/s

Minimum flow velocity

“flow velocity obtained from Table 9.5.1” or “flow velocity at Reynolds number of 5000”, whichever is greater. For liquid Reynolds number of 5000 : See P.9-16 “Calculation formula”. “flow velocity obtained from Table 9.5.1” or “flow velocity at Reynolds number of 5000”, whichever is greater. For Gas and steam Reynolds number of 5000 : See P.9-16 “Calculation formula”.

DYF Tab-11

■ Range of fixed accuracy flow velocity

Table 9.5.3 Range of fixed accuracy flow velocity

“flow velocity obtained from Table 9.5.1” or “flow velocity at Reynolds number of 20000”, whichever is greater. For liquid Reynolds number of 20000 : The value is four times velocity value in P.9-16 “Calculation formula”. “flow velocity obtained from Table 9.5.1” or “flow velocity at Reynolds number of 40000”, whichever is greater. For liquid Reynolds number of 40000 : The value is eight times velocity value in P.9-16 “Calculation formula”. “flow velocity obtained fromTable 9.5.1” or “flow velocity at Reynolds number of 20000”, whichever is greater. For gas and steam Reynolds number of 20000 : See P.9-16 “Calculation formula”. “flow velocity obtained fromTable 9.5.1” or “flow velocity at Reynolds number of 40000”, whichever is greater. For gas and steam Reynolds number of 40000 : See P.9-16 “Calculation formula”.

DYF Tab-12

Fluid

Model Code Minimum flow velocity

Maximum

flow

velocity

(Note)

10 m/s

80 m/s

Liquid

Gas,

Steam

DY015

up to

DY100

DY150

up to

DY300

DY015

up to

DY100

DY150

up to

DY300

DY025-

/R1

up to

DY150-

/R1

DY200-

/R1

DY025-

/R1

up to

DY150-

/R1

DY200-

/R1

DY040-

/R2

up to

DY200-

/R2

—

DY040-

/R2

up to

DY200-

/R2

—

Page 95

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IM 01F06A00-01E

9. GENERAL DESCRIPTION

■ Detailed Accuracy (for Table 9.5.3 Range of Fixed Accurancy Flow Velocity.)

Volumetric flow rate at operation condition *Accuracy: of Reading

Liquid

Gas,

Steam

Model

Code

DY015

DY025

DY040

DY050

DY080

DY100

DY150

DY200

DY250

DY300

DY015

DY025

DY040

DY050

DY080

DY100

DY150

DY200

DY250

DY300

General Type

Reduced Bore Type (/R2)Multi-Variable Type (/MV)

± 1.0%

(20000  Re)

± 1.0%

(Velocity 35m/s or less)

± 1.5%

(Velocity 35m/s up to 80m/s )

± 1.0%

(Velocity 35m/s or less)

± 1.5%

(Velocity 35m/s up to 80m/s )

Reduced Bore Type (/R1)

± 1.0%

(Velocity 35m/s or less)

± 1.5%

(Velocity 35m/s up to 80m/s )

± 1.0%

(20000  Re < 2000*D)

± 0.75%

(

2000*D  Re

)

± 1.0%

(20000  Re < 1500*D)

± 0.75%

(

1500*D  Re

)

± 1.0%

(20000  Re < 1000*D)

± 0.75%

(

1000*D  Re

)

± 1.0%

(20000  Re < 1500*D)

± 0.75%

(

1500*D  Re

)

± 1.0%

(20000  Re)

± 1.0% (40000  Re)

± 1.0%

(20000  Re < 1000*D)

± 0.75%

(

1000*D  Re

)

± 1.0%

(40000  Re < 1000*D)

± 0.75%

(

1000*D  Re

)

± 1.0%

(40000  Re < 1000*D)

± 0.75%

(

1000*D  Re

)

± 1.0%

(Velocity 35m/s or less)

± 1.5%

(Velocity 35m/s up to 80m/s )

DYF Tab-13

D : Inner diameter of digitalYEWFLO detecter (mm) Re: Reynolds number (non unit) Note: This table shows the accuracy of pulse output. In case of analog output, add up ± 0.1% of full scale to the values mentioned above. Guarantee conditions of liquid volumetric flow rate: the accuracy of a product before shipment in our water actual test facility. Totalized value of 2000 pulse or greater, straight pipe length: upper 10D or greater, lower 5D or greater, Fluid temp. 20 ± 10degC Gas, Steam : The accuracy which is add up from liquid measurement accuracy. The accuracy is confirmed by actual measured value of typical nominal size.

Mass flow or Volumetric flow rate at Normal/Standard condition:

for Multi-Variable Type and combination of Multi-Variable Type and Reduced Bore *Accuracy: of Reading

T13-b.EPS

Multi-Variable Type (/MV)/ Reduced Bore Type (/R1)

Multi-Variable Type (/MV)

± 2.0% (20000  Re < 1000*D)

± 1.5% (1000

*D Re)

± 2.0% (20000  Re < 1500*D)

± 1.5% (1500

*D Re)

± 2.0% (20000  Re)

± 2.0% (40000  Re < 1000*D)

± 1.5% (1000

*D Re)

± 2.0% (40000  Re)

± 2.0%

(Velocity 35m/s or less)

± 2.5%

(Velocity 35m/s up to 80m/s )

± 2.0%

(Velocity 35m/s or less)

± 2.5%

(Velocity 35m/s up to 80m/s )

Multi-Variable Type (/MV)/

Reduced Bore Type (/R1)

± 2.0% (20000  Re)

± 2.0%

(Velocity 35m/s or less)

± 2.5%

(Velocity 35m/s up to 80m/s )

Model

Code

DY025

DY040

DY050

DY080

DY100

DY150

DY200

DY015

DY025

DY040

DY050

DY080

DY100

DY150

DY200

Liquid

Gas,

Steam

Page 96

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9. GENERAL DESCRIPTION

■ Calculation formula

■ How to calculate volume flow rate at operating

conditions.

υ  D

• Qf = 3600  υ  S or Qf =

354

■ How to calculate the velocity of a Reynolds number.

• υ = 5   / D (Reynolds number of 5000)

• υ = 20   / D (Reynolds number of 20000)

• υ = 40   / D (Reynolds number of 40000)

however

354 103  Qf

• Re = ········· (1)

  D



•  =

 10

················· (2)

ρf

Qf : Volume flow rate at operating conditions (m3/h) D: Inner diameter of YEWFLO (mm) S: Sectional area of YEWFLO(m2) υ : Flow velocity (m/s) Re : Reynolds number (non unit)

ρf: Density at operating conditions (kg/m

)

 : Viscosity at operating conditions (mPa·s (cP))  :

Kinematic viscosity at operating conditions (10-6m2/s(cSt)

)

■ Typical fluid example

Table 9.5.4 Range of Measurable Water Flow Rate

(At standard condition of 15°C, ρ = 1000 kg/m3)

DYF Tab-14-b

Model Code

Range of Fixed

Accuracy Flow

Rate in m

Measurable Flow Rate

in m

DY015

DY025

DY040

DY050

DY080

DY100

DY150

200

250

300

DY025-/R1

DY040-/R1

DY050-/R1

DY080-/R1

DY100-/R1

DY150-/R1

DY200-/R1

—

DY040-/R2

DY050-/R2

DY080-/R2

DY100-/R2

DY150-/R2

DY200-/R2

—

0.30 up to 6

0.65 up to 18

1.3 up to 44

2.2 up to 73

4.3 up to 142

7.5 up to 248

17 up to 544

to 973

to 1506

to 2156

0.94 up to 6

1.7 up to 18

2.6 up to 44

3.3 up to 73

4.6 up to 142

7.5 up to 248

18 up to 544

to 973

to 1506

to 2156

Page 97

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9. GENERAL DESCRIPTION

Table 9.5.5 Range of Measurable Air Flow Rate at Selected Process Pressures

min.

max.

min.

max.

min.

max.

min.

max.

min.

max.

min.

max.

min.

max.

min.

max.

min.

max.

min.

max.

DY015

DY025

DY040

DY050

DY080

DY100

DY150

DY200

DY250

DY300

DY025

-/R1

DY040

-/R1

DY050

-/R1

DY080

-/R1

DY100

-/R1

DY150

-/R1

DY200

-/R1

—

DY040

-/R2

DY050

-/R2

DY080

-/R2

DY100

-/R2

DY150

-/R2

DY200

-/R2

—

Model Code

Flow Rate

Limits

Minimum and Maximum Measurable Flow Rate in Nm

0 MPa

4.8(11.1)

48.2

11.0(19.5)

149

21.8(30.0)

356

36.2(38.7)

591

70.1

1140

122

1990

268

4358

575

7792

1037

12049

1485

17256

0.1 MPa

6.7(11.1)

95.8

15.5(19.5)

297

30.8

708

1174

98.4

2266

172

3954

377

8659

809

15482

1461

23939

2093

34286

0.2 MPa

8.2(11.1)

143

19.0(19.5)

444

37.8

1060

62.4

1757

120

3391

211

5919

485

12960

990

23172

1788

35833

2561

51317

0.4 MPa

10.5(11.1)

239

24.5

739

48.7

1764

80.5

2922

155

5642

272

9847

808

21559

1445

38549

2306

59611

3303

85370

0.6 MPa

12.5

334

29.0

1034

61.6

2468

102

4088

197

7892

334

13775

1131

30163

2202

53933

3127

83400

4479

119441

0.8 MPa

16.1

429

33.3

1329

79.2

3171

131

5254

254

10143

442

17703

1453

38765

2599

69313

4019

107181

5756

153499

1 MPa

19.7

524

40.6

1624

3875

161

6420

310

12394

540

21632

1776

47365

3175

84693

4911

130968

7033

187556

1.5 MPa

28.6

762

59.0

2361

149

5634

233

9335

451

18021

786

31453

2583

68867

4617

123138

7140

190418

10226

272699

2 MPa

37.5

1000

77.5

3098

184

7394

306

12249

591

23648

1031

41274

3389

90373

6059

161591

9370

249881

13419

357856

2.5 MPa

46.4

1238

95.9

3836

229

9153

379

15164

732

29274

1277

51095

4196

111875

7501

200046

11600

309334

16612

443017

(1) At standard conditions STP (0˚C. 1atm). (2) Pressure listed is at process temperature of 0˚C. (3) Maximum flow rate is the lower of 80 m/s. (4) Minimum values are determined from Table 12. The values in parenthesis show the minimum linear flow rates (Re = 20,000 or 40,000) when they are higher than the minimum measurable flow rate.

DYF Tab-15

Table 9.5.6 Range of Measurable Saturated Steam Flow Rate at Selected Process Pressures

Minimum and Maximum Measurable Flow Rate in kg/h

0.1 MPa

5.8(10.7)

55.8

13.4(18.9)

169.7

26.5(29.2)

405

44.0

671

84.9

1295

148

2261

324

4950

697

8851

1256

13687

1799

19602

0.2 MPa

7.0(11.1)

16.2(20.0)

247.7

591

979

103

1891

179

3300

392

7226

841

12918

1518

19977

2174

28609

0.4 MPa

8.8(11.6)

129

20.5

400

40.6

954

67.3

1580

130

3050

227

5326

498

11661

1068

20850

1929

32243

2762

46175

0.6 MPa

10.4(12.1)

177

24.1

548

47.7

1310

2170

152

4188

267

7310

600

16010

1252

28627

2260

44268

3236

63397

0.8 MPa

11.6(12.3)

225

27.1

696

53.8

1662

2753

171

5314

300

9276

761

20315

1410

36325

2546

56172

3646

80445

1 MPa

12.8

272

843

2012

3333

189

6435

330

11232

922

24595

1649

43976

2801

68005

4012

97390

1.5 MPa

15.3

390

1209

2884

119

4778

231

9224

402

16102

1322

35258

2364

63043

3655

97489

5235

139614

2 MPa

19.1

508

1575

3759

156

6228

300

12024

524

20986

1723

45953

3081

82165

4764

127058

6823

181960

2.5 MPa

23.6

628

1945

116

4640

192

7688

371

14842

647

25907

2127

56729

3803

101433

5882

156854

8423

224633

3 MPa

28.1

748

2318

138

5532

229

9166

442

17694

772

30883

2536

67624

4534

120913

7011

186978

10041

267772

(1) Maximum flow rate is the lower of 80 m/s. (3) Minimum values are determined from Table 12. The values in parenthesis show the minimum linear flow rates (Re = 20,000 or 40,000) when they are higher than the minimum measurable flow rate.

DYF Tab-16

min.

max.

min.

max.

min.

max.

min.

max.

min.

max.

min.

max.

min.

max.

min.

max.

min.

max.

min.

max.

DY015

DY025

DY040

DY050

DY080

DY100

DY150

DY200

DY250

DY300

DY025

-/R1

DY040

-/R1

DY050

-/R1

DY080

-/R1

DY100

-/R1

DY150

-/R1

DY200

-/R1

—

DY040

-/R2

DY050

-/R2

DY080

-/R2

DY100

-/R2

DY150

-/R2

DY200

-/R2

—

Model Code

Flow Rate

Limits

Page 98

9-19

IM 01F06A00-01E

9. GENERAL DESCRIPTION

■ Reference

Table 9.5.7 Inner Diameter and Nominal value

Model Code

Inner

Diameter

Nominal K-Factor

Pulse/L

Nominal Pulse Rate

Hz/m/s Hz/m

DY015

DY025

DY040

DY050

DY080

DY100

DY150

DY200

DY250

DY300

DY025-/R1

DY040-/R1

DY050-/R1

DY080-/R1

DY100-/R1

DY150-/R1

DY200-/R1

—

14.6

25.7

39.7

51.1

71.0

93.8

138.8

185.6

230.8

276.2

376

65.6

18.7

8.95

3.33

1.43

0.441

0.185

0.0966

0.0563

62.7

35.5

23.1

18.3

13.2

9.88

6.67

5.00

4.04

3.37

104

19.1

5.19

2.49

0.925

0.397

0.123

0.0514

0.0268

0.0156

DYF Tab-14

■ Pressure Loss

Calculation of pressure loss for general type

obtained from the following equations.

∆P= 108 × 10-5 · ρf · υ

········· (1)

or ∆P= 135 × ρf ·

··············· (2)

where,

∆P: Pressure loss (kPa ) ρf: Density at operating condition (kg/m3 ) υ : Flow velocity (m/s)

Qf : Actual flow rate (m3/h) D: Internal Diameter of detector (mm)

(Example)

DY050, hot water: 80°C, flowrate: 30 m

1. Since the density of water at 80°C is 972 kg/m

substitute this value in equation (2):

∆P= 135 × 972 × 302 / 51.1

= 17.3 kPa

2. Obtain the pressure loss using equation (1). The flow velocity when the flow rate is 30 m3/h is given by:

υ = 354×Qf /D2=

354×30

= 4.07 m/s

51.1

Therefore, substitute this value in equation (1):

∆P= 108 × 10-5 × 972 × 4.07

= 17.3 kPa

Calculation of pressure loss for reduced bore type (Option code: /R1)

obtained from the following equations.

∆P= 124 × 10

-5

× ρf × υ

········· (3)

or ∆P= 155 × ρ

f × Qf

/ D4 ········ (4)

(Example)

DY040-/R1, hot water: 50 deg C flowrate: 10 m

1. Since the density of water at 50 deg C is 992 kg/cm3, substitute this value in equation (4):

∆P= 155 × 992 × 102 / 25.7

= 35.3 kPa

2. Obtain by using equation (3). The flow velocity when the flow rate is 10 m3/h is given by:

υ = 354 × Qf × /D

= 354 × 10 × 25.7

= 5.4 m/s

Therefore, substitute this value in equation (3):

∆P= 124 × 10

-5

× 992 × 5.4

= 35.3 kPa

Calculation of pressure loss for reduced bore type (Option code: /R2)

obtained from the following equations. ∆P= 138 × 10

-5

· ρf · υ

········· (5)

or ∆P= 173 × ρf ·

··············· (6)

(Example)

DY050-/R2, hot water: 50 deg C, flowrate: 15 m

1. Since the density of water at 50 deg C is 992 kg/ cm3, substitute this value in equation (6):

∆P= 173 × 992 × 15

/ 25.7

= 88.5 kPa

2. Obtain by using equation (5). The flow velocity when the flow rate is 20m3/h is given by:

υ = 354×Q

f /D

354×15

= 8.0 m/s

25.7

Therefore, substitute this value in equation (5):

∆P= 138 × 10

-5

× 992 × 8.0

= 88.5 kPa

■ Cavitation

(Minimum Back Pressure, Liquid service only):

Cavitation occurs when the flow line pressure is low and flow velocity is high during fluid measurement, preventing correct measurement of flow rate. The optimum line pressure can be obtained from the following equation. P = 2.7 · ∆P + 1.3 · Po

··············· (5)

Where,

P: Line pressure, 2 to 7 times as large as internal

diameter on downstream of flowmeter body surface. (kPa absolute).

∆P: Pressure loss (kPa).

Refer to the item above.

Po : Saturation liquid vapor pressure at operating

temperature (kPa absolute).

(Example) Confirmation of presence of cavitation

Suppose that the line pressure is 120 kPa abs and the flow rate scale is 0 to 30 m

/h. It is only necessary to confirm the pressure at the maximum flow rate ; therefore, the saturated steam pressure of water at 80°C is as follows from the table of saturated steam pressures:

Po = 47.4 kPa abs

Therefore, substitute this value in equation (5):

P = 2.7  17.3 + 1.3  47.4

= 108.3 kPa abs

Since the operating pressure of 120 kPa abs is higher than 108.3 kPa abs, no cavitation occurs.

Page 99

9-20

IM 01F06A00-01E

9. GENERAL DESCRIPTION

9.6 External Dimensions

■ Wafer type (DY015 up to DY100)

Unit: mm

(approx. inch)

125 (4.92)

φD

2-φG

(2.91)

59 (2.32)

4.5(0.18)

59 (2.32)

ELECTRICAL CONNECTION

CLAMP

Only for

TIIS Explosion proof KEMA Explosion proof SAA Explosion proof

WITH INDICATOR

EARTH TERMINAL

φ94

(3.70)

103.5 (4.07)

87.5 (3.44)

6.0 (13.23lb)

4.3 (9.48lb)

AJ1

AJ2

AJ4

AA1 AA2 AA4

AD1

- AD4

AJ1

AJ2 AJ4

AA1

AA2

AP4 AA4

AD1

- AD4

70 (2.76)

39.7 (1.56) 73 (2.87)

74.2

(2.92)

74.2

(2.92)

84.9

(3.34)

69.7

(2.74)

80.8

(3.18)

80.8

(3.18)

77.8

(3.06)

37.1

(1.46)

37.1

(1.46)

42.4

(1.67)

34.8

(1.37)

40.4

(1.59)

40.4

(1.59)

38.9

(1.53)

(0.67)17(0.67)

(0.67)

(0.83)14(0.55)20(0.79)20(0.79)

45.9

(1.81)

49.8

(1.96)

48.6

(1.91)

48.6

(1.91)

55.4

(2.18)

60.1

(2.36)

58.7

(2.31)

58.7

(2.31)

(0.67)17(0.67)

75 (2.95)

35 (1.38) 37.5 (1.48)

92 (3.62)

51.1 (2.01)

158 (6.22)

307.5 (12.11)

136 (5.35)

276 (10.87)

12.8 (28.22lb)9.4 (20.73lb)

372 (14.65)

190 (7.48)

342 (13.47)

175 (6.89)

157.2 (6.19)

93.8 (3.69)

50 (1.97)

120 (4.72)

72.7

(2.86)

68.9

(2.71)

82.6

(3.25)

76.6

(3.02)

72.9

(2.87)

78.5

(3.09)

70.8

(2.79)

(2.64)

87.8

(3.46)

83.1

(3.27)

99.7

(3.93)

(3.46)

92.5

(3.64)

94.7

(3.73)

85.5

(3.37)

80.8

(3.18)

(0.83)

(0.91)

(0.83)

(0.67)

(3.06)

(0.79)

(0.83)

(0.67)

77.7

(3.06)

77.7

(3.06)

78.5

(3.09)

73.9

(2.91)

73.9

(2.91)

73.9

(2.91)

69.3

(2.73)

- AD4

AD3

61.2

(2.41)

61.2

(2.41)

64.4

(2.54)

64.4

(2.54)

65.1

(2.56)

61.2

(2.41)

57.4

(2.26)

127 (5.00)

71 (2.80)

40 (1.57)

100 (3.94)

DY080 (80mm,3in)

AA4AA2

AA1

AJ4AJ2

AJ1

- AD2

AD1

AA4AA2AA1

AJ4

AJ2

AJ1

DY100 (100mm,4in)

AD1

- AD2

AD3

- AD4

INTEGRAL/REMOTE

(Note 1) Integral weight is the same as Remote. (Note 2) In case of with Indicator, add 0.2kg. (Note 3) The hole is not provided. (Note 4) The flow direction is opposite (right to left when facing onto indicator) in case of code / CRC.

C D H

DY040 (40mm,1

/2 in) DY050 (50mm,2in)

INTEGRAL/REMOTE

TYPE CODE

PROCESS CONNECTION

TYPE

CODE

PROCESS CONNECTION

3.7 (8.16lb)2.8 (6.17lb)

258 (10.16) 129 (5.08)

50.8 (2.00)

25.7 (1.01)

70 (2.76)

60.1

(2.37)

62.9

(2.48)

62.9

(2.48)

(2.21)

67.2

(2.65)

63.6

(2.50)

63.6

(2.50)

30.1

(1.19)

31.4

(1.24)

31.4

(1.24)

(1.10)

33.6

(1.32)

31.8

(1.25)

31.8

(1.25)

(0.51)

(0.55)

(0.67)

DY025 (25mm,1in)

(0.67)14(0.55)14(0.55)14(0.55)13(0.51)

(0.51)

(0.91)

23.5

(0.93)

23.5

(0.93)

21.4

(0.84)

28.3

(1.11)

24.7

(0.97)

24.7

(0.97)

(1.81)

47.1

(1.85)

47.1

(1.85)

42.7

(1.68)

56.6

(2.23)

49.5

(1.95)

49.5

(1.95)

127 (5.00)

35.1 (1.38) 248 (9.76)

14.6 (0.57)

70 (2.76)

35 (1.38)35 (1.38)

DY015 (15mm,

/2 in)

- AD4

AD1

AA4AA2

AA1

AJ4AJ2

AJ1

- AD4

AD1

AA4AA2AA1

AJ4

AJ2

AJ1

PROCESS CONNECTION

INTEGRAL/REMOTE

TYPE

CODE

WEIGHT kg

(Note 3)

Page 100

9-21

IM 01F06A00-01E

9. GENERAL DESCRIPTION

■ Flange type (DY015 up to DY100)

Unit: mm

(approx. inch)

125(4.92)

87.5(3.44)

103.5(4.07)

φD

N-φG

4.5(0.18)

59(2.32) 59(2.32)

74(2.91)

φ94(3.70)

CLAMP

EARTH TERMINAL

ELECTRICAL CONNECTION

WITH INDICATOR

Only For

TIIS Explosion proof KEMA Explosion proof SAA Explosion proof

6.94.2

25.4

(1.00)

101.6

(4.00)

34.9

(1.37)

307

(12.09)

149.4

(5.88)

150

(5.91)

190

(7.48)

22.4

(0.88)

82.6

(3.25)

28.8

(1.13)

291

(11.46)

120.7 (4.75)

130

(5.12)

160

(6.30)

INTEGRAL/REMOTE

(3.35)

(3.50)

79.2

(3.12)

(3.74)

(3.54)

4 (0.16)

15.7

(0.62)

(0.75)

25.7 (1.01)

150

(5.91)

DY025 (25mm,1in)

(0.55)

15.7

(0.62)

15.7

(0.62)

15.7

(0.62)

(0.75)

(0.59)

4 (0.16)

(2.56)

66.5

(2.62)

66.5

(2.62)

60.5

(2.38)

(7.15)

(2.76)

14.6 (0.58)

130

(5.12)

BD1

- BD4BJ4BJ2BJ1- BD4

BD1

BA1 BS1

BA2 BS2

BA4 BS4

BA5 BS5

BA1 BS1

BA2 BS2

BA4 BS4

BA5 BS5

BA1 BS1

BA2 BS2

BA4 BS4

BA5 BS5

BA1 BS1

BA2 BS2

BA4 BS4

BA5 BS5

BA1 BS1

BA2 BS2

BA4 BS4

BA5 BS5

BA1 BS1

BA2 BS2

BA4 BS4

BA5 BS5BJ4BJ2BJ1

PROCESS CONNECTION

TYPE

CODE

(3.74)

115

(4.53)

88.9

(3.50)

95.3

(3.75)

95.3

(3.75)

278

(10.94)

278

(10.94)

288

(11.34)

275

(10.83)

278

(10.94)

278

(10.94)

278

(10.94)

127 (5.00)

(0.47)14(0.55)20(0.79)

11.2

(0.44)

14.2

(0.56)21(0.83)16(0.63)

125

(4.92)

125

(4.92)

130

(5.12)

108

(4.25)

124

(4.88)

124

(4.88)

115

(4.53)

295

(11.61)

295

(11.61)

297.5

(11.91)

286.5

(11.28)

294.5

(11.59)

294.5

(11.59)

290

(11.42)

(0.55)16(0.63)22(0.87)

14.2

(0.56)

17.5

(0.69)24(0.94)18(0.71)

129 (5.08)

(0.75)

(0.55)

4.2 4.3 5.9 4.1 4.3 4.6 6.9 7.1 8.6 6.6 7.2 7.7

WEIGHT

6.7

15.7

(0.62)

66.5

(2.62)

19.9

(0.78)

278

(10.94)

95.3

(3.75)

140

(5.51)

CA4

4.5

22.4

(0.88)

82.6

(3.25)

28.8

(1.13)

291

(11.46)

120.7 (4.75)

160

(6.30)

CA5

6.8 11.1

(0.75)

(3.50)

(0.94)

294.5

(11.59)

124

(4.88)

170

(6.69)

CA4

7.9

25.4

(1.00)

101.6 (4.00)

34.9

(1.37)

307

(12.09)

149.4 (5.88)

190

(7.48)

CA5

11.4

15.219.269.26 9.48 13.01 9.04 9.48 10.14 15.21 15.66 18.96 14.55 15.88 16.9814.77 9.92 14.99 24.48 17.42 25.14

11.38.8

25.4

(1.00)

(0.31)

165.1 (6.50)

44.5

(1.75)

369.5

(14.55)

215.9 (8.50)

170

(6.69)

230

(9.06)

28.4

(1.12)

124

(4.88)

38.2

(1.50)

328.5 (12.93)

177.8 (7.00)

150

(5.91)

200

(7.87)

DY050 ( 50mm, 2in)

DY040 (40mm,1

/2 in)

BD1

- BD4BJ4BJ2BJ1- BD4

BD1

BJ4BJ2BJ1

150

(5.91)

39.7 (1.56)

140

(5.51)

140

(5.51)

160

(6.30)

127

(5.00)

155.4 (6.12)

155.4

(6.12)

150

(5.91)

309.5

(12.19)

309.5

(12.19)

319.5

(12.58)

303

(11.93)

317

(12.48)

317

(12.48)

314.5

(12.38)

136 (5.35)

(0.63)

(0.71)

(1.02)

17.5

(0.69)

20.6

(0.81)

28.8

(1.13)

105

(4.13)

105

(4.13)

120

(4.72)

98.6

(3.88)

114.3 (4.50)

114.3

(4.50)

110

(4.33)

(0.16)

(0.75)

(0.91)

15.7

(0.62)

22.4

(0.88)

22.4

(0.88)

(0.71)

170

(6.69)

51.1 (2.01)

155

(6.10)

155

(6.10)

165

(6.50)

165

(6.50)

152.4

(6.00)

165.1

(6.50)

165.1

(6.50)

339

(13.35)

339

(13.35)

344

(13.54)

344

(13.54)

344

(13.54)

344

(13.54)

337.5

(13.29)

158 (6.22)

(0.63)

(0.71)

(1.02)

19.1

(0.75)

22.4

(0.88)

31.8

(1.25)

(0.79)

120

(4.72)

120

(4.72)

130

(5.12)

120.7

(4.75)

127

(5.00)

127

(5.00)

125

(4.92)

(0.16)

(0.31)8 (0.31)8 (0.31)8 (0.31)

(0.75)

(0.71)

8.2 8.4 11.9 8.1 9.3 11.3 11.1 11.6 14.3 11.7 13.2 14.8

INTEGRAL/REMOTE

PROCESS CONNECTION

TYPE

CODE

16.2

22.4

(0.88)

114.3 (4.50)

28.8

(1.13)

317

(12.48)

155.4 (6.12)

185

(7.28)

CA4

11.7

28.4

(1.12)

124

(4.88)

38.2

(1.50)

328.5

(12.93)

177.8

(7.00)

200

(7.87)

CA5

16.3 26.5

(0.75)

(0.31)

127

(5.00)

33.3

(1.31)

344

(13.54)

165.1 (6.50)

205

(8.07)

CA4

15.8

25.4

(1.00)

(0.31)

165.1 (6.50)

(1.81)

369.5

(14.55)

215.9 (8.50)

230

(9.06)

CA5

26.9

24.9219.4018.08 18.52 26.24 17.86 20.51 24.92 24.48 25.58 31.53 25.80 29.11 32.6335.72 25.80 35.94 58.43 34.84 59.31

27.423.22019.4

31.8

(1.25)

235

(9.25)

50.9

(2.00)

439.5

(17.30)

292.1

(11.50)

280

(11.02)

200

(7.87)

25.4

(1.00)

(0.31)

190.5 (7.50)

44.5

(1.75)

399

(15.71)

209.6

(8.25)

245

(9.65)

DY100 (100mm, 4in)

DY080 (80mm, 3in)

BJ4BJ2BJ1

BD1

- BD2

BD3

- BD4 BJ1 BJ2 BJ4 - BD2

BD1 BD3

- BD4

200

(7.87)

71 (2.80)

185

(7.28)

200

(7.87)

200

(7.87)

200

(7.87)

210

(8.27)

190.5 (7.50)

209.6

(8.25)

241.3 (9.50)

371

(14.61)

378.5

(14.90)

383.5

(15.10)

374

(14.72)

383.5

(15.10)

383.5

(15.10)

378.5

(14.90)

378.5

(14.90)

175 (6.89)

(0.71)

(0.87)

(1.26)

23.9

(0.94)

28.4

(1.12)

38.2

(1.50)

(0.79)

(0.95)

150

(5.91)

160

(6.30)

160

(6.30)

160

(6.30)

170

(6.69)

152.4 (6.00)

168.2

(6.62)

168

(6.61)

(0.31)8 (0.31)8 (0.31)8 (0.31)8 (0.31)8 (0.31)8 (0.31)

(0.75)

(0.91)

22.4

(0.88)

22.4

(0.88)

(0.71)

(0.16)

220

(8.66)

220

(8.66)

240

(9.45)

93.8 (3.69)

210

(8.27)

225

(8.90)

250

(9.84)

228.6 (9.00)

254

(10.00)

273

(10.75)

220

(8.66)

235

(9.25)

398.5

(15.69)

406

(15.98)

418.5

(16.48)

409

(16.10)

420.5

(16.56)

430

(16.93)

403.5

(15.89)

411

(16.18)

190 (7.48)

(0.71)

(0.95)

(1.42)

23.9

(0.94)

31.8

(1.25)

44.5

(1.75)

(0.79)

175

(6.89)

185

(7.28)

205

(8.07)

190.5 (7.50)

200.2 (7.88)

216

(8.50)

180

(7.09)

190

(7.48)

(0.31)

(0.75)

(0.91)

(0.98)

22.4

(0.88)

25.4

(1.00)

(0.71)

(0.87)

17.4 20 25.4 20 23.8 25.4 22.8 26.8 38.1 27.4 35.9 50.8

INTEGRAL/REMOTE

PROCESS CONNECTION

TYPE

CODE

35.7

22.4

(0.88)

(0.31)

170

(6.69)

39.7

(1.56)

383.5

(15.10)

235

(9.25)

CA4

209.6

(8.25)

27.1

25.4

(1.00)

(0.31)

180

(7.09)

(1.81)

399

(15.71)

250

(9.84)

CA5

241.3

(9.50)

36.3 55.9

25.4

(1.00)

216

(8.50)

(1.81)

430

(16.93)

273

(10.75)

270

(10.63)

CA4

52.8

31.8

(1.25)

235

(9.25)

52.4

(2.06)

439.5

(17.30)

292.1

(11.50)

285

(11.22)

CA5

56.6

60.4251.1644.1042.7838.37 44.10 56.01 44.10 52.48 56.01 50.27 59.09 84.01 60.42 79.16 112.0178.72 59.76 80.04 123.26 116.42 124.80

(Note 1) Integral weight is the same as Remote (Note 2) In the case of with Indicator, add 0.2 kg (Note 3) The flow direction is opposite (right to left when facing onto indicator) in case of code / CRC.

DY015 (15mm,1/2 in)