YOKOGAWA EJX510B, EJX530B User Manual

Page 1
User’s Manual
Yokogawa Electric Corporation
EJX510B and EJX530B Absolute and Gauge Pressure Transmitters
IM 01C27F01-01EN
2nd Edition
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IM 01C27F01-01EN
EJX510B and EJX530B Absolute and Gauge Pressure Transmitters
IM 01C27F01-01EN 2nd Edition
2nd Edition: Aug. 2010 (YK) All Rights Reserved, Copyright © 2010, Yokogawa Electric Corporation
Contents
1. Introduction ............................................................................................... 1-1
1.1 Safe Use of This Product .................................................................................1-2
1.2 Radio Wave ........................................................................................................1-3
1.3 Warranty .............................................................................................................1-3
1.4 Trademarks ........................................................................................................1-3
1.5 ATEX Documentation .......................................................................................1-4
2. Handling Cautions .................................................................................... 2-1
2.1 Model and Specications Check ..................................................................... 2-1
2.2 Unpacking ..........................................................................................................2-1
2.3 Storage ...............................................................................................................2-1
2.4 Selecting the Installation Location ................................................................2-2
2.5 Pressure Connection ........................................................................................ 2-2
2.6 Restrictions on Use of Radio Transceivers ...................................................2-3
2.7 Insulation Resistance and Dielectric Strength Test ......................................2-3
2.8 Installation of an Explosion-Protected Instrument .......................................2-4
2.8.1 FM Approval .......................................................................................2-4
2.8.2 CSA Certication ................................................................................2-5
2.9 EMC Conformity Standards .............................................................................2-5
2.10 Pressure Equipment Directive (PED) .................................................. 2-5
2.11 Low Voltage Directive .......................................................................................2-6
2.12 Regulatory Compliance for Radio and Telecommunication ........................ 2-7
2.12.1 Radio and Telecommunications Terminal Equipment Directive (R&TTE)
....................................................................................................2-7
2.12.2 FCC compliance ................................................................................2-7
2.12.3 Industry Canada (IC) compliance ......................................................2-7
3. Component Names .................................................................................. 3-1
4. Installation ................................................................................................. 4-1
4.1 Precautions .......................................................................................................4-1
4.2 Mounting ............................................................................................................4-1
4.3 Rotating Transmitter Section ...........................................................................4-2
4.4 Changing the Direction of Integral Indicator .................................................4-2
4.5 Changing the direction of the antenna ...........................................................4-3
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5. Installing Impulse Piping .........................................................................5-1
5.1 Impulse Piping Installation Precautions ........................................................5-1
5.1.1 Connecting Impulse Piping to a Transmitter ...................................... 5-1
5.1.2 Routing the Impulse Piping ................................................................5-1
5.2 Impulse Piping Connection Examples ...........................................................5-2
6. Grounding ................................................................................................. 6-1
7. Operation ................................................................................................... 7-1
7.1 Preparation for Starting Operation .................................................................7-1
7.2 Zero Point Adjustment .....................................................................................7-2
7.3 Starting Operation ............................................................................................ 7-2
7.4 Connecting to the Field Wireless Network ..................................................... 7-3
7.5 Shutting Down the Transmitter .......................................................................7-4
8. Setting Parameters ................................................................................... 8-1
8.1 Environment for parameter setting .................................................................8-1
8.2 Preparing Software for the Conguration Tool .............................................8-1
8.3 Setting Parameters ...........................................................................................8-2
8.3.1 Parameter Usage and Selection ........................................................8-2
8.3.2 Function Block and Menu Tree .......................................................... 8-3
8.3.3 Parameters for Wireless Communication ........................................8-10
8.3.4 Tag and Device Information ............................................................. 8-11
8.3.5 Unit ................................................................................................... 8-11
8.3.6 Range Change ................................................................................. 8-11
8.3.7 Output Signal Low Cut Mode Setup ................................................ 8-11
8.3.8 Integral Indicator Scale Setup ..........................................................8-12
8.3.9 Unit for Displayed Temperature .......................................................8-12
8.3.10 Zero Point Adjustment and Span Adjustment ..................................8-12
8.3.11 Software Write Protect .....................................................................8-14
8.3.12 Switching to Deep Sleep Mode ........................................................8-14
8.3.13 Switching to Silence Mode ...............................................................8-14
8.4 Self-Diagnostics ..............................................................................................8-15
8.4.1 Identify Problems by Using the Communicator ...............................8-15
8.4.2 Checking with Integral Indicator .......................................................8-17
9. Maintenance .............................................................................................. 9-1
9.1 Overview ............................................................................................................ 9-1
9.2 Calibration Instruments Selection ..................................................................9-1
9.3 Calibration .........................................................................................................9-1
9.4 Disassembly and Reassembly ........................................................................9-3
9.4.1 Replacing the Integral Indicator .........................................................9-3
9.4.2 Replacing the RF Assembly ...............................................................9-4
9.4.3 Replacing the CPU Assembly ............................................................9-4
9.4.4 Cleaning and Replacing the Capsule Assembly ...............................9-5
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9.4.5 Replacing the Battery Pack ...............................................................9-5
9.4.6 Replacing the Batteries ...................................................................... 9-6
9.4.7 Handling Batteries ..............................................................................9-6
9.5 Troubleshooting ................................................................................................9-7
9.5.1 Basic Troubleshooting ....................................................................... 9-7
9.5.2 Troubleshooting Flowcharts ...............................................................9-8
9.5.3 Alarms and Countermeasures .........................................................9-10
10. Parameter Summary ..............................................................................10-1
11. General Specications .......................................................................... 11-1
11.1 Standard Specications .................................................................................11-1
11.2 Model and Sufx Codes ................................................................................. 11-3
11.3 OPTIONAL SPECIFICATIONS ........................................................................ 11-3
11.4 Dimensions ...................................................................................................... 11-5
Revision Information ...............................................................................................i
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<1. Introduction>
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1. Introduction
Thank you for purchasing the DPharp EJX Absolute and Gauge Pressure transmitter.
Your EJX Pressure Transmitter was precisely calibrated at the factory before shipment. To ensure both safety and efciency, please read this manual carefully before you operate the instrument.
NOTE
This manual covers the EJX510B absolute pressure transmitter and EJX530B gauge pressure transmitter. Unless otherwise stated, the illustrations in this manual are of the EJX530B differential pressure transmitter. Users of the other models should bear in mind that certain features of their instrument will differ from those shown in the illustrations of the EJX530B.
Model
EJX510B EJX530B
Regarding This Manual
• This manual should be provided to the end user.
• The contents of this manual are subject to change without prior notice.
• All rights reserved. No part of this manual may be reproduced in any form without Yokogawa’s written permission.
• Yokogawa makes no warranty of any kind with regard to this manual, including, but not limited to, implied warranty of merchantability and tness for a particular purpose.
• If any question arises or errors are found, or if any information is missing from this manual, please inform the nearest Yokogawa sales ofce.
• The specications covered by this manual are limited to those for the standard type under the specied model number break-down and do not cover custom-made instruments.
• Please note that changes in the specications, construction, or component parts of the instrument may not immediately be reected in this manual at the time of change, provided that postponement of revisions will not cause difculty to the user from a functional or performance standpoint.
• Yokogawa assumes no responsibilities for this product except as stated in the warranty.
• If the customer or any third party is harmed by the use of this product, Yokogawa assumes no responsibility for any such harm owing to any defects in the product which were not predictable, or for any indirect damages.
• The following safety symbols are used in this manual:
WARNING
Indicates a potentially hazardous situation which, if not avoided, could result in death or serious injury.
CAUTION
Indicates a potentially hazardous situation which, if not avoided, may result in minor or moderate injury or physical damage. It may also be used to alert against unsafe practices.
IMPORTANT
Indicates that operating the hardware or software in this manner may damage it or lead to system failure.
NOTE
Draws attention to information essential for understanding the operation and features.
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1.1 Safe Use of This Product
For the safety of the operator and to protect the instrument and the system, please be sure to follow this manual’s safety instructions when handling this instrument. If these instructions are not heeded, the protection provided by this instrument may be impaired. In this case, Yokogawa cannot guarantee that the instrument can be safely operated. Please pay special attention to the following points:
(a) Installation
• This instrument may only be installed by an engineer or technician who has an expert knowledge of this device. Operators are not allowed to carry out installation unless they meet this condition.
• With high process temperatures, care must be taken not to burn yourself by touching the instrument or its casing.
• Never loosen the process connector nuts when the instrument is installed in a process. This can lead to a sudden, explosive release of process uids.
• When draining condensate from the pressure detector section, take appropriate precautions to prevent the inhalation of harmful vapors and the contact of toxic process uids with the skin or eyes.
• When removing the instrument from a hazardous process, avoid contact with the uid and the interior of the meter.
• All installation shall comply with local installation requirements and the local electrical code.
(b) Wiring
• The instrument must be installed by an engineer or technician who has an expert knowledge of this instrument. Operators are not permitted to carry out wiring unless they meet this condition.
(c) Maintenance
• Please carry out only the maintenance procedures described in this manual. If you require further assistance, please contact the nearest Yokogawa ofce.
• Care should be taken to prevent the build up of dust or other materials on the display glass and the name plate. To clean these surfaces, use a soft, dry cloth.
(d) Explosion Protected Type Instrument
• Users of explosion proof instruments should refer rst to Section 2.8 (Installation of an Explosion-Protected Instrument) of this manual.
• The use of this instrument is restricted to those who have received appropriate training in the device.
• Take care not to create sparks when accessing the instrument or peripheral devices in a hazardous location.
• Repair or modication to this instrument by customer will cause malfunction of explosion protect function and hazardous situation. If you need to repair or modication, please contact the nearest Yokogawa ofce.
(e) Modication
• Yokogawa will not be liable for malfunctions or damage resulting from any modication made to this instrument by the customer.
WARNING
- Do not loosen bolts or nuts used for
connecting impulse piping to the transmitter pressure-detector section when they are pressured because loosen bolts or nuts causes spout of process liquid.
- Take appropriate care to avoid contact with
the body or eyes, or inhalation of vapors when venting or draining if the accumulated liquid (or gas) is toxic or harmful.
- Take appropriate care to avoid contact with
the body or eyes, or inhalation of vapors when the transmitter is removed from process for maintenance if process liquid is toxic or harmful.
CAUTION
This instrument is certied as explosion protected type instrument. Structure, installing location, maintenance and repair of this instrument are restricted. Violation of this restriction causes hazardous situation. Users of explosion proof type instruments should refer rst to section 2.8 “Installation of an Explosion­Protected Instrument” of this manual.
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1.2 Radio Wave
IMPORTANT
- This instrument is equipped with a wireless module which is designated as a certication of construction type as a wireless facility for 2.4 GHz band low-power data communication system of the Radio Act. Refer to 2.12 “Regulatory Compliance for Radio and Telecommunication” for detail.
- Due to the designated certication of construction type, users may be subject to legal punishment in case of:
- Disassembling or modifying the wireless
module or antenna in this instrument
- Peeling off the certication label attached
to the wireless module in this instrument
- Preventing interference with other wireless stations
The operating frequency bandwidth of this
instrument may overlap the same range as industrial devices, scientic devices, medical devices, microwave ovens, licensed premises radio stations and non-licensed specied low-power radio stations for mobile object identication systems used in factory production lines.
Before using this instrument, ensure that
neither a premises radio station nor specied low power radio station for mobile object identication systems is in use nearby.
If this instrument causes radio wave
interference to a wireless station for mobile object identication systems, promptly change the frequency being used or turn off the source of radio wave emissions. Then, contact a Yokogawa ofce regarding countermeasures to prevent interference, such as setting up partitions.
1.3 Warranty
• The warranty shall cover the period noted on
the quotation presented to the purchaser at the time of purchase. Problems occurring during the warranty period shall basically be repaired free of charge.
• If any problems are experienced with this instrument, the customer should contact the Yokogawa representative from which this instrument was purchased or the nearest Yokogawa ofce.
• If a problem arises with this instrument, please inform us of the nature of the problem and the circumstances under which it developed, including the model specication and serial number. Any diagrams, data and other information you can include in your communication will also be helpful.
• The party responsible for the cost of xing the problem shall be determined by Yokogawa following an investigation conducted by Yokogawa.
• The purchaser shall bear the responsibility for repair costs, even during the warranty period, if the malfunction is due to:
- Improper and/or inadequate maintenance by
the purchaser.
- Malfunction or damage due to a failure
to handle, use, or store the instrument in accordance with the design specications.
- Use of the product in question in a location
not conforming to the standards specied by Yokogawa, or due to improper maintenance of the installation location.
- Failure or damage due to modication or
repair by any party except Yokogawa or an approved representative of Yokogawa.
- Malfunction or damage from improper
relocation of the product in question after delivery.
- Reason of force majeure such as res,
earthquakes, storms/oods, thunder/ lightening, or other natural disasters, or disturbances, riots, warfare, or radioactive contamination.
1.4 Trademarks
In this document, trademarks or registered trademarks are not marked with “™” or “®”.
Product names and company names in this document are trademarks or registered trademarks of the respective companies.
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1.5 ATEX Documentation
This is only applicable to the countries in European Union.
GB
DK
I
E
NL
SF
P
F
D
S
LT
LV
PL
EST
SLO
H
BG
RO
M
CZ
SK
GR
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2. Handling Cautions
This chapter provides important information on how to handle the transmitter. Read this carefully before using the transmitter.
EJX Series transmitters are thoroughly tested at the factory before shipment. When taking delivery of an instrument, visually check them to make sure that no damage occurred during shipment.
Also check that all transmitter mounting hardware and a bar magnet shown in gure 2.1 is included. If the transmitter is ordered without the mounting bracket and the process connector, the transmitter mounting hardware will not be included. After checking the transmitter, carefully repack it in its box and keep it there until you are ready to install it.
U-bolt Nut (L type)
Mounting bracket
U-bolt (L type)
U-bolt (S type)
U-bolt Nut (S type)
Figure 2.1 Transmitter Mounting Hardware
2.1 Model and Specications Check
The model name and specications are written on the name plate attached to the case.
: Refer to USER'S MANUAL.
Made in Japan TOKYO 180-8750 JAPAN
MODEL SUFFIX
SUPPLY OUTPUT MWP
mA DC
V DC
STYLE
CAL RNG
NO.
F0202.ai
Figure 2.2 Name Plate
2.2 Unpacking
Keep the transmitter in its original packaging to prevent it from being damaged during shipment. Do not unpack the transmitter until it reaches the installation site.
2.3 Storage
The following precautions must be observed when storing the instrument, especially for a long period.
(a) Select a storage area which meets the following
conditions:
• It is not exposed to rain or subject to water seepage/leaks.
• Vibration and shock are kept to a minimum.
• It has an ambient temperature and relative humidity within the following ranges.
• For maximum battery life, storage temperature should not exceed 30°C.
Ambient temperature: –40 to 85°C without integral indicator –30 to 80°C with integral indicator Relative humidity: 0% to 100% R.H. Preferred temperature and humidity: approx. 25°C and 65% R.H.
(b) When storing the transmitter, repack it carefully in
the packaging that it was originally shipped with.
(c) If the transmitter has been used, thoroughly
clean the chambers inside the cover anges, so that there is no process uid remaining inside. Before placing it in storage, also make sure that the pressure-detector is securely connected to the transmitter section.
NOTE
When storing the instrument with a battery pack, it is recommended to put the instrument in Deep Sleep mode to conserve the batteries. For details on how to switch to Deep Sleep mode, refer to subsection 8.3.12 “Switching to Deep Sleep Mode”.
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2.4 Selecting the Installation Location
The transmitter is designed to withstand severe environmental conditions. However, to ensure that it will provide years of stable and accurate performance, take the following precautions when selecting the installation location.
(a) Wireless Communication
The installation location of this transmitter must meet the following conditions:
- Adjust the direction of the antenna to be in the upright position regardless of the orientation of this transmitter. See section 4 for adjusting the antenna.
- Install the transmitter at least 1.5m above the ground or oor.
F0203.ai
1.5m or over
- Ensure that there are no obstacles such as walls or pipes within a 30-cm radius of each antenna.
- Conrm that each eld wireless equipment compliant with ISA100.11a can see the antenna of other devices which locate within its own communication range. In the star topology network, the visibility to the antenna of gateway is a mandatory clause.
(b) Ambient Temperature
Avoid locations subject to wide temperature variations or a signicant temperature gradient. If the location is exposed to radiant heat from plant equipment, provide adequate thermal insulation and/or ventilation.
(c) Ambient Atmosphere
Do not install the transmitter in a corrosive atmosphere. If this cannot be avoided, there must be adequate ventilation.
(d) Shock and Vibration
Although the transmitter is designed to be relatively resistant to shock and vibration, an installation site should be selected where this is kept to a minimum.
(e) Installation of Explosion-protected Transmitters
An explosion-protected transmitters is certied for installation in a hazardous area containing specic gas types. See subsection
2.8 “Installation of an Explosion-Protected
Transmitters.”
2.5 Pressure Connection
WARNING
• Never loosen the process connector bolts when an instrument is installed in a process. The device is under pressure, and a loss of seal can result in a sudden and uncontrolled release of process uid.
• When draining toxic process uids that have condensed inside the pressure detector, take appropriate steps to prevent the contact of such uids with the skin or eyes and the inhalation of vapors from these uids.
The following precautions must be observed in order to safely operate the transmitter under pressure.
(a) Make sure that all the process connector bolts
are tightened rmly.
(b) Make sure that there are no leaks in the impulse
piping.
(c) Never apply a pressure higher than the
specied maximum working pressure.
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2.6 Restrictions on Use of Radio Transceivers
IMPORTANT
Although the transmitter has been designed to resist high frequency electrical noise, if a radio transceiver is used near the transmitter or its external wiring, the transmitter may be affected by high frequency noise pickup. To test this, start out from a distance of several meters and slowly approach the transmitter with the transceiver while observing the measurement loop for noise effects. Thereafter use the transceiver outside the range where the noise effects were rst observed.
2.7 Insulation Resistance and Dielectric Strength Test
Since the transmitter has undergone insulation resistance and dielectric strength tests at the factory before shipment, normally these tests are not required. If the need arises to conduct these tests, heed the following:
(a) Do not perform such tests more frequently than
is absolutely necessary. Even test voltages that do not cause visible damage to the insulation may degrade the insulation and reduce safety margins.
(b) Never apply a voltage exceeding 500 V DC
(100 V DC with an internal lightning protector) for the insulation resistance test, nor a voltage exceeding 500 V AC (100 V AC with an internal lightning protector) for the dielectric strength test.
(c) The procedure for conducting these tests is as
follows:
Insulation Resistance Test
1) Remove the battery pack. See subsection 9.4.5 for details on how to remove it.
2) Short-circuit the battery connection terminals in the terminal box.
3) Turn OFF the insulation tester. Then connect the insulation tester plus (+) lead wire to the shorted battery connection terminals and the minus (–) leadwire to the grounding terminal.
4) Turn ON the insulation tester power and measure the insulation resistance. The voltage should be applied as briey as possible to verify that the insulation resistance is at least 20 MΩ.
5) After completing the test and being very careful not to touch exposed conductors disconnect the insulation tester and connect a 100 kΩ resistor between the grounding terminal and the short­circuiting battery connection terminals. Leave this resistor connected at least one second to discharge any static potential. Do not touch the terminals while it is discharging.
NOTE
When storing the instrument with a battery pack, it is recommended to put the instrument in Deep Sleep mode to conserve the batteries. For details on how to switch to Deep Sleep mode, refer to subsection 8.3.12 “Switching to Deep Sleep Mode”.
Dielectric Strength Test
1) Remove the battery pack. See subsection 9.4.5 for details on how to remove it.
2) Short-circuit the battery connection terminals in the terminal box.
3) Turn OFF the dielectric strength tester. Then connect the tester between the shorted battery connection terminals and the grounding terminal. Be sure to connect the grounding lead of the dielectric strength tester to the ground terminal.
4) Set the current limit on the dielectric strength tester to 10 mA, then turn ON the power and gradually increase the test voltage from ‘0’ to the specied voltage.
5) When the specied voltage is reached, hold it for one minute.
6) After completing this test, slowly decrease the voltage to avoid any voltage surges.
NOTE
When storing the instrument with a battery pack, it is recommended to put the instrument in Deep Sleep mode to conserve the batteries. For details on how to switch to Deep Sleep mode, refer to subsection 8.3.12 “Switching to Deep Sleep Mode”.
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2.8 Installation of an Explosion­Protected Instrument
If a customer makes a repair or modication to an intrinsically safe instrument and the instrument is not restored to its original condition, its intrinsically safe construction may be compromised and the instrument may be hazardous to operate. Please contact Yokogawa before making any repair or modication to an instrument.
CAUTION
This instrument has been tested and certied as being intrinsically safe. Please note that severe restrictions apply to this instrument’s construction, installation, external wiring, maintenance and repair. A failure to abide by these restrictions could make the instrument a hazard to operate.
2.8.1 FM Approval
Caution for FM intrinsically safe type. (Following contents refer “DOC. No. IFM037-A20”)
Note 1. Model EJX Series Differential, gauge
and absolute pressure transmitters with optional code /FS17 are applicable for use in hazardous locations.
• Applicable Standard: FM3600, FM3610, FM3611, FM3810
• Intrinsically Safe for Class I, Division 1, Groups A, B, C & D. Class II, Division 1, Groups E, F & G and Class III, Division 1, Class I, Zone 0 in Hazardous Locations, AEx ia IIC
• Nonincendive for Class I, Division 2, Groups A, B, C & D. Class II, Division 2, Groups F & G and Class III, Division 1, Class I, Zone 2, Groups IIC, in Hazardous Locations.
• Enclosure: NEMA 4X (Indoors and outdoors)
• Temperature Class: T4
• Ambient temperature: -50 to 70°C
Note 2. Installation
• Installation should be in accordance with ANSI/ISA RP12.6 “Installation of Intrinsically Safe Systems for Hazardous (Classied) Locations” and the National Electric Code (ANSI/NFPA 70).
• Dust-tight conduit seal must be used when installed in a Class II, III, Group E, F and G environments.
• Note a warning label worded “SUBSTITUTION OF COMPONENTS MAY IMPAIR INTRINSIC SAFETY,” and “INSTALL IN ACCORDANCE WITH DOC. No. IFM037-A20”.
Note 3. Maintenance and Repair
• The instrument modication or parts replacement by other than authorized representative of Yokogawa Electric Corporation is prohibited and will void Factory Mutual Intrinsically safe and Nonincendive Approval.
Transmitter
Hazardous Location
[Intrinsically Safe] Class I, II, III, Division 1, Groups A,B,C,D,E,F,G Class I, Zone 0 in Hazardous (Classified) Locations AEx ia IIC
[Nonincendive] Class I, II, Division 2, Groups A, B, C, D, F, G Class III, Division 1. Class I, Zone 2, Group IIC, in Hazardous (Classified) Locations
F0204.ai
Note 4. Battery Pack USE ONLY YOKOGAWA BATTERY PACK
F9915MA or F9915NS.
Note 5. Special Conditions for safe use POTENTIAL ELECTROSTATIC CHARGING
HAZARD-SECURE DISTANCE OF 100MM FROM ANTENNA.
DO NOT OPEN WHEN CL II, III, DIV 1,2
ATMOSPHERE IS PRESENT.
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2.8.2 CSA Certication
Caution for CSA Intrinsically safe type. (Following contents refer to “DOC No. ICS030”)
Note 1. Model EJX Series differential, gauge,
and absolute pressure transmitters with optional code /CS17 are applicable for use
in hazardous locations Certicate: 2325443 [For CSA C22.2]
• Applicable Standard: C22.2 No.0, C22.2
No.0.4, C22.2 No.25, C22.2 No.94, C22.2 No.157, C22.2 No.213, C22.2 No.61010-1
• Intrinsically Safe for Class I, Division 1,
Groups A, B, C & D, Class II, Division 1, Groups E, F & G, Class III, Division 1
• Nonincendive for Class I, Division2,
Groups A, B, C&D, Class II, Division2, Groups F&G, Class III, Division1
• Enclosure: Type 4X,
• Temp. Code: T4
• Amb. Temp.:-50 to 70°C
• Process Temperature: 120°C max. [For CSA E60079]
• Applicable Standard: CAN/CSA E60079-0,
CAN/CSA E60079-11, IEC 60529:2001-02
• Ex ia IIC T4
• Ambient Temperature: -50 to 70°C
• Max. Process Temp.: 120°C
• Enclosure: IP66 and 67
Note 2. Installation
• Installation should be in accordance with
Canadian Electrical Code Part I and Local Electrical Code.
• Do not alter drawing without authorization
from CSA.
• The instrument modication or parts
replacement by other than authorized representative of Yokogawa Electric Corporation of America is prohibited and will void Canadian Standards Intrinsically safe and nonincendive Certication.
Transmitter
Hazardous Location
[Intrinsically Safe] Group IIC, Zone 0 Class I, II, III, Division 1, Groups A,B,C,D,E,F,G
[Nonincendive] Class I, II, Division 2, Groups A,B,C,D,F,G Class III, Division 1
F0205.ai
Note 3. Battery Pack
• Use only YOKOGAWA battery pack F9915MA or F9915NS.
Note 4. Special Conditions for safe use
• Potential electrostatic charging hazard ­secure distance of 100mm from antenna.
2.9 EMC Conformity Standards
EN61326-1 Class A, Table 2 (For use in industrial locations), EN61326-2-3
CAUTION
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.
2.10 Pressure Equipment Directive (PED)
(1) General
• EJX Series pressure transmitters are categorized as pressure accessories under the vessel section of directive 97/23/EC, which corresponds to Article 3, Paragraph 3 of PED, denoted as Sound Engineering Practice (SEP).
• EJX110B-MS, EJX110B-HS, EJX110B-VS, EJX510B-D, and EJX530B-D can be used above 200 bar and therefore considered as a part of a pressure retaining vessel where category III, Module H applies. These models with option code /PE3 conform to that category.
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(2) Technical Data
• Models without /PE3 Article 3, Paragraph 3 of PED, denoted as Sound Engineering Practice (SEP).
• Models with /PE3
Module: H Type of Equipment: Pressure Accessory-Vessel Type of uid: Liquid and Gas Group of uid: 1 and 2
Model
Capsule
codePS(bar)*
1
V(L)
PS·V
(bar·L)
Category*
2
EJX110B
L 160 0.01 1.6
Article 3,
Paragraph 3
(SEP)
M, H, V 250 0.01 2.5
EJX110B with code
/PE3
M, H, V 250 0.01 2.5 III
EJX310B L, M, A, B 160 0.01 1.6
Article 3,
Paragraph 3
(SEP)
EJX430B H, A, B 160 0.01 1.6
Article 3,
Paragraph 3
(SEP)
EJX510B
A, B, C 100 0.1 10
Article 3,
Paragraph 3
(SEP)
D 700 0.1 70
EJX510B with code
/PE3
D 700 0.1 70 III
EJX530B
A, B, C 100 0.1 10
Article 3,
Paragraph 3
(SEP)
D 700 0.1 70
EJX530B with code
/PE3
D 700 0.1 70 III
*1: PS is maximum allowable pressure for vessel itself. *2: Referred to Table 1 covered by ANNEX II of EC Directive
on Pressure Equipment Directive 97/23/EC
(3) Operation
CAUTION
• The temperature and pressure of uid should be maintained at levels that are consistent with normal operating conditions.
• The ambient temperature should be maintained at a level that is consistent with normal operating conditions.
• Please take care to prevent water hammer and the like from inducing excessive pressures in pipes and valves. If phenomena are likely, install a safety valve or take some other appropriate measure to prevent pressure from exceeding PS.
• Take appropriate measures at the device or system level to protect transmitters if they are to be operated near an external heat source.
2.11 Low Voltage Directive
Applicable standard: EN61010-1
(1) Pollution Degree 2
"Pollution degree" describes the degree to which a solid, liquid, or gas which deteriorates dielectric strength or surface resistivity is adhering. " 2 " applies to normal indoor atmosphere. Normally, only non-conductive pollution occurs. Occasionally, however, temporary conductivity caused by condensation must be expected.
(2) Installation Category I
"Overvoltage category (Installation category)" describes a number which denes a transient overvoltage condition. It implies the regulation for impulse withstand voltage. " I " applies to electrical equipment which is supplied from the circuit when appropriate transient overvoltage control means (interfaces) are provided.
Page 15
<2. Handling Cautions>
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IM 01C27F01-01EN
2.12 Regulatory Compliance for Radio and Telecommunication
Please conrm that a installation region fullls a standards, require additional regulatory information and approvals, contact to Yokogawa Electric Corporation.
2.12.1 Radio and Telecommunications Terminal Equipment Directive (R&TTE)
We, Yokogawa Electric Corporation hereby declare that this equipment, model EJX-L series is in compliance with the essential requirements and other relevant provisions of Directive 1999/5/EC. The CE declaration of conformity for R&TTE for this product can be found at http://www.yokogawa.com/ d/
NOTE
France restricts outdoor use to 10mW (10dBm) EIRP in the frequency range of 2,454
- 2,483.5MHz. Installation in France must congure the network with conguration tool not to use channel 10 to 14. To congure the network, refer to IM 01W01F01-01EN.
2.12.2 FCC compliance
This device complies with Part 15 of FCC Rules. Operation is subject to the following two conditions: (1) this device may not cause interference, and (2) this device must accept any interference, including interference that may cause undesired operation of this device.
Co-located:
This transmitter must not be co-located or operated in conjunction with any other antenna or transmitter.
FCC WARNING:
Changes or modications not expressly approved by the party responsible for compliance could void the user’s authority to operate the equipment.
NOTE
This equipment has been tested and found to comply with the limits for a Class A digital device, pursuant to part 15 of he FCC Rules. These limits are designed to provide reasonable protection against harmful interference when the equipment is operated in a commercial environment. This equipment generates, uses, and can radiate radio frequency energy and, if not installed and used in accordance with the instruction manual,may cause harmful interference to radio communications. Operation of this equipment in a residential area is likely to cause harmful interference in which case the user will be required to correct the interference at his own expense.
2.12.3 Industry Canada (IC) compliance
This Class A digital apparatus complies with Canadian ICES-003.
French: Cet appareil numérique de la classe A est conforme à la norme NMB-003 du Canada.
Operation is subject to the following two conditions: (1) this device may not cause interference, and (2) this device must accept any interference, including interference that may cause undesired operation of the device.
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<3. Component Names>
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IM 01C27F01-01EN
3. Component Names
WR E D
F0301.ai
H L
E D
H L
E D
YES
(Note 2)
(Write disabled)
NO
(Write enabled)
Zero-adjustment screw
Ground terminal
RF assembly
CPU assembly
Not in use
Write protection switch
Transmitter section
Amplifier Cover
Mounting screw
Integral indicator
Slide switch
Hardware write protection switch (WR)
Write Protection
Write Protection Switch Position
(Note 1)
Pressure-detector section
Note 1: Set the switch as shown in the gure above to set the write protection. The hardware write protection switch is set to E side. Set
to H side for the switch of not-in-use.
Note 2: When the switch is D side (write protection setting), provisioning is acceptable. For details of provisioning, refer to section 7.4 “
Connecting to the Field Wireless Network “.
Figure 3.1 Component Names
Table 3.1 Display Symbol
Display Symbol Meaning of Display Symbol
The output signal being zero-adjusted is increasing.
The output signal being zero-adjusted is decreasing.
Write protect function is enabled.
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<4. Installation>
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IM 01C27F01-01EN
4. Installation
4.1 Precautions
Before installing the transmitter, read the cautionary notes in section 2.4, “Selecting the Installation Location.” For additional information on the ambient conditions allowed at the installation location, refer to section11.1 “Standard Specications.”
NOTE
To connect this transmitter to the Field Wireless Network, information for connecting to the eld wireless devices needs to be set beforehand. Refer to 7.4 “Connecting to the Field Wireless Network.”
IMPORTANT
• When welding piping during construction, take care not to allow welding currents to ow through the transmitter.
• Do not step on this instrument after installation.
• For the EJX530B whose capsule code is A, B or C, the pipe of the atmospheric opening is located on the pressure detecting section. The opening must not face upward. See subsection 5.1.1.
• D capsule of EJX530B is of sealed gauge reference and the change in atmospheric pressure may affect the measurement.
4.2 Mounting
■ The impulse piping connection port of the transmitter is covered with a plastic cap to protect against dust. This cap must be removed before connecting the piping. (Be careful not to damage the threads when removing these caps. Do not insert a screw driver or other tool between the cap and the port threads to remove the cap.)
■ The transmitter can be mounted on a nominal 50 mm (2-inch) pipe using the mounting bracket supplied, as shown in Figure 4.1.
■ The user should prepare the mating gasket for the transmitters with Process connection code 8 and 9. See Figure 4.2.
Horizontal pipe mounting
F0401.ai
Vertical pipe mounting
50 mm (2-inch) pipe
U-bolt (L)
U-bolt (S)
Mounting bracket
U-bolt nut (S)
U-bolt nut (L)
U-bolt nut (L)
Mounting bracket
50 mm (2-inch) pipe
U-bolt (L)
U-bolt (S)
U-bolt nut (S)
Figure 4.1 Transmitter Mounting
Gasket
F0402.ai
Figure 4.2 Gasketing
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<4. Installation>
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IM 01C27F01-01EN
IMPORTANT
Tighten the hexagonal nut part of the capsule assembly. See Figure 4.3.
F0403.ai
Capsule assembly
Figure 4.3 Tightening Transmitter
4.3 Rotating Transmitter Section
WARNING
Intrinsic safe type transmitters must be, as a rule, do not rotate transmitter section if it is powered. In case you need to rotate when the transmitter is powered, using gas detector and conrm no existence of explosive gas before rotating.
The transmitter section can be rotated approximately 360° (180° to either direction or 360° to one direction from the original position at shipment, depending on the conguration of the instrument.) It can be xed at any angle within above range.
1) Remove the ve setscrews that fasten the transmitter section and capsule assembly, using the Allen wrench.
2) Rotate the transmitter section slowly and stop it at designated position. For the EJX530B whose capsule code is A, B or C, the pipe of the atmospheric opening may interfere with the stopper and disturb further rotation. In that case, screw off the pipe rst, rotate the housing, and then screw in the pipe by hand again.
3) Tighten the ve setscrews to a torque of 1.5 N·m.
IMPORTANT
Do not rotate the transmitter section more than the above limit.
Stopper
Setscrew
Transmitter section
Pressure-detector section
F0404.ai
Figure 4.4 Rotating Transmitter Section
4.4 Changing the Direction of Integral Indicator
WARNING
Intrinsic safe type transmitters must be, as a rule, remove a battery pack in non-hazardous area before open/close the Amplier Cover or disassembling and reassembling the Integral Indicator.
An integral indicator can be installed in the following three directions. Follow the instructions in section
9.4.1 for removing and attaching the integral
indicator.
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<4. Installation>
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IM 01C27F01-01EN
4.5 Changing the direction of the antenna
Adjust the direction of the antenna to be in the upright position. Figure 4.5 show factory setup antenna position. If the transmitter is installed to horizontal impulse piping, follow the procedure below and change the antenna position.
1) Loosen the two mounting screws at the bottom of the antenna by using a 2.5mm Allen wrench (see Figure 4.5).
2) Press forward and down 90 degrees by rotating the axis at the bottom of the antenna.
3) Tighten the two screws to a torque of 1.5 N-m by using a torque wrench. When doing this, be careful not leave a gap between the antenna and housing.
F0405.ai
Figure 4.5 Mounting Screw Position
F0406.ai
Figure 4.6 Adjusting Antenna Position
Page 20
<5. Installing Impulse Piping>
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IM 01C27F01-01EN
5. Installing Impulse Piping
5.1 Impulse Piping Installation Precautions
The impulse piping that connects the process outputs to the transmitter must convey the process pressure accurately. If, for example, gas collects in a liquidlled impulse line, or the drain for a gas-lled impulse line becomes plugged, it will not convey the pressure accurately. Since this will cause errors in the measurement output, select the proper piping method for the process uid (gas, liquid, or steam). Pay careful attention to the following points when routing the impulse piping and connecting the impulse piping to a transmitter.
5.1.1 Connecting Impulse Piping to a Transmitter
IMPORTANT
The transmitter can be installed in horizontal impulse piping conguration, tilting the transmitter's position up to 90°. When tilting, observe that the pipe (for Model EJX530A with measurement span code A, B, and C) is positioned horizontal downwards, or any place between them, as shown in Figure 5.1 The zero-adjustment screw must be positioned downwards for all the models.
F0501.ai
Zero-adjustment screw Pipe
(backside of the instrument)
The pipe (open to atmosphere) is positioned horizontal.
If the zero-adjustment screw is positioned other than downwards after installation, rotate the housing until it is positioned downwards.
Figure 5.1 Horizontal Impulse Piping Connection
5.1.2 Routing the Impulse Piping
(1) Process Pressure Tap Angles
If condensate, gas, sediment or other extraneous material in the process piping gets into the impulse piping, pressure measurement errors may result. To prevent such problems, the process pressure taps must be angled as shown in gure 5.2 according to the kind of uid being measured.
NOTE
• If the process uid is a gas, the taps must be vertical or within 45° either side of vertical.
• If the process uid is a liquid, the taps must be horizontal or below horizontal, but not more than 45° below horizontal.
• If the process uid is steam or other condensing vapor, the taps must be horizontal or above horizontal, but not more than 45° above horizontal.
[Gas]
Pressure
taps
Process
piping
[Steam][Liquid]
45°
45°
45° 45°
45°
45°
F0502.ai
Figure 5.2 Process Pressure Tap Angle
(For Horizontal Piping)
(2) Position of Process Pressure Taps and
Transmitter
If condensate (or gas) accumulates in the impulse piping, it should be removed periodically by opening the drain (or vent) plugs. However, this will generate a transient disturbance in the pressure measurement, and therefore it is necessary to position the taps and route the impulse piping so that any extraneous liquid or gas generated in the leadlines returns naturally to the process piping.
• If the process uid is a gas, then as a rule the transmitter must be located higher than the process pressure taps.
• If the process uid is a liquid or steam, then as a rule the transmitter must be located lower than the process pressure taps.
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<5. Installing Impulse Piping>
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IM 01C27F01-01EN
(3) Impulse Piping Slope
The impulse piping must be routed with only an upward or downward slope. Even for horizontal routing, the impulse piping should have a slope of at least 1/10 to prevent condensate (or gases) from accumulating in the pipes.
(4) Preventing Freezing
If there is any risk that the process uid in the impulse piping or transmitter could freeze, use a steam jacket or heater to maintain the temperature of the uid.
NOTE
After completing the connections, close the valves on the process pressure taps (main valves), the valves at the transmitter (stop valves), and the impulse piping drain valves, so that condensate, sediment, dust and other extraneous material cannot enter the impulse piping.
5.2 Impulse Piping Connection Examples
Figure 5.3 shows examples of typical impulse piping connections. Before connecting the transmitter to the process, study the transmitter installation location, the process piping layout, and the characteristics of the process uid (corrosiveness, toxicity, ammability, etc.), in order to make appropriate changes and additions to the connection congurations.
Note the following points when referring to these piping examples.
• If the impulse line is long, bracing or supports should be provided to prevent vibration.
• The impulse piping material used must be compatible with the process pressure, temperature, and other conditions.
• A variety of process pressure tap valves (main valves) are available according to the type of connection (anged, screwed, welded), construction (globe, gate, or ball valve), temperature and pressure. Select the type of valve most appropriate for the application.
F0503.ai
Tee
Stop valve
Stop valve
Drain valve
Drain plug
Union
or
flange
Union
or
flange
Tap valve
Figure 5.3 Impulse Piping Connection Examples
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<6. Grounding>
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IM 01C27F01-01EN
6. Grounding
Always ground the transmitter case in accordance with national and local electrical codes. The most effective transmitter case grounding method is a direct connection to earth ground with minimal impedance.
F0601.ai
Ground terminal
Figure 6.1 Ground Terminal
CAUTION
Grounding is recommended for safe operation.
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<7. Operation>
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IM 01C27F01-01EN
7. Operation
7.1 Preparation for Starting Operation
This section describes the operation procedure for the EJX530B as shown in gure 7.1.
NOTE
It is required to set security and network information to enable the transmitter to be connected to the Field Wireless Network. For more details, refer to section 7.4 “Connecting to the Field Wireless Network”.
NOTE
Check that the process pressure tap valves, drain valves, and stop valves are closed.
(a) Follow the procedures below to introduce
process pressure into the impulse piping and transmitter.
1) Open the tap valve (main valve) to ll the impulse piping with process uid.
2) Gradually open the stop valve to introduce process uid into the transmitter pressure­detector section.
3) Conrm that there is no pressure leak in the impulse piping, transmitter, or other components.
(b) Turn on the power and connect the Field
Wireless Devices to the eld wireless network.
(c) Using the conguration tool, conrm that
the transmitter is operating properly. Check parameter values or change the setpoints as necessary.
Integral Indicator’s indication can be used
to conrm that the transmitter is operating properly. For details on how to conrm refer to subsection 8.4 “Self-Diagnostics”.
ISA100 devices display self-diagnostic
information in an easy-to-understand manner using four categories (Check function, Maintenance required, Failure, and Off specication) according to NAMUR NE107*
* NAMUR NE107 “Self-Monitoring and Diagnosis of Field
Devices”
F0701.ai
Union or flange
Vent plug (Fill plug)
Tap valve
Stop valve
Tee
Drain valve
Drain plug
Union or flange
Figure 7.1 Liquid Pressure Measurement
(Gauge Pressure Transmitters)
Conrm that transmitter is operating properly by Integral Indicator
If the transmitter is faulty, an error code is displayed.
F0702.ai
Self-diagnostic error on the integral indicator (Faulty transmitter)
Figure 7.2 Integral Indicator with Error Code
NOTE
If any of the above errors are indicated on the display of the integral indicator or the conguration tool, refer to subsection 9.5.3 for the corrective action.
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<7. Operation>
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IM 01C27F01-01EN
Verify and Change Transmitter
Parameter Setting and Values
The parameters related to the following items are minimum required to be set for operation, and set at factory as specied in order. Conrm or change the parameters if needed.
• Measurement range (measurement lower/ upper limit, unit)
7.2 Zero Point Adjustment
After completing preparations for operating the transmitter, adjust the zero point. There are two zero point adjusting ways.
IMPORTANT
Do not turn off the power to the transmitter immediately after performing a zero point adjustment. Powering off within 30 seconds of performing this procedure will return the zero point to its previous setting.
(1) When you can obtain the Low Range Value
from the actual measured value of 0% (0kPa, atmospheric pressure);
Using the transmitter’s zero-adjustment
screw
Before adjusting zero point, make sure followings.
• That the External zero trim parameter (EXTERNAL_ZERO_TRIM) is “Trim on”. For details, refer to section 8 “Setting Parameters”.
• Use a slotted screwdriver to turn the zero­adjustment screw. Turn the screw clockwise to increase the output or counterclockwise to decrease the output.
The zero point adjustment can be made with a resolution of 0.01% of the setting range. The degree of zero adjustments varies with the screw turning speed turn the screw slowly to make a ne adjustment, quickly to make a rough adjustment.
IMPORTANT
When zeroing with the zero-adjustment screw, turn the screw rmly until ▲ or ▼ mark is displayed on the integral indicator since there exists mechanical dead-band of the screw.
Using the Conguration Tool
Refer to subsection 8.3.10 “Zero Point Adjustment and Span Adjustment”.
(2) When you cannot obtain the Low Range
Value from the actual measured value of 0%;
Adjust the transmitter output value matches to the actual measured value obtained by precise pressure measurement equipment.
[Example]
The measuring range of 50 to 250 kPa : the actual measured value of 130kPa.
130–50
250–50
Actual measured value=
x100=40.0%
Using the transmitter’s zero-adjustment
screw
Turn the zero adjustment screw to adjust the transmitter.
Using the Conguration Tool
Refer to subsection 8.3.10 “Zero Point Adjustment and Span Adjustment”.
7.3 Starting Operation
After the zero point adjustment is completed, the transmitter is already the operating status. Follow the procedure below.
1) Conrm the operating status. If the output signal exhibits wide uctuations (hunting) due to periodic variation in the process pressure, use the communicator to dampen the transmitter output value. Conrm the hunting using a receiving instrument or the integral indicator, set the suitable damping time constant.
2) After conrming the operating status, perform the following.
IMPORTANT
• Close the terminal box cover and the amplier cover. Screw each cover in tightly until it will not turn further.
• Tighten the zero-adjustment cover mounting screw to secure the cover.
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<7. Operation>
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IM 01C27F01-01EN
7.4 Connecting to the Field Wireless Network
Preparation work prior to connecting to a
Field Wireless Network
This transmitter does not need to be connected with a physical wire. Instead of physical wiring, it is necessary to set the eld wireless devices to communicate with before installing the transmitter. This transmitter supports provisioning via infrared communication using a provisioning device and can be securely connected to a network. If the provisioning information is not set, the transmitter cannot be connected to the eld wireless network.
Provisioning:
Provisioning is work to set the security and
network information to enable the transmitter to be connected to the eld wireless network. This transmitter supports a provisioning method: the OOB (out-of-band) method using infrared communication.
For details on provisioning using a provisioning device, and procedure for connecting the transmitter to the Field Wireless Network, refer to the User’s Manual, YFGW710 Field Wireless Integrated Gateway (IM 01W01F01-01EN).
F0703.ai
within 30cm
Figure 7.3 Provisioning Example
Provisioning work
This subsection describes provisioning work using FieldMate as the provisioning device. Provisioning work performs provisioning for each eld wireless device using FieldMate and an infrared adapter. If Yokogawa-recommended infrared device is used for provisioning, distance between the transmitter glass window and the infrared device should be within 30cm. For details of Yokogawa-recommended infrared device, refer to subsection 9.2 “Calibration Instruments Selection”. Perform the following provisioning tasks.
• Setting provisioning information
• Creating a provisioning information le
1) Setting provisioning information Set the device tag and network ID using a
FieldMate provisioning function. The device tag, network ID, and join key are set in the Field Wireless Device. It is not necessary to input a join key because FieldMate automatically generates it.
Setting device tag
The device tag is used for the user to
recognize the Field Wireless Device.
Setting network ID
This is the network ID for the eld wireless
network to which the eld wireless device is connected. Set a value from 2 to 65535.
The eld wireless device is connected to the
eld wireless network corresponding to the network ID set by provisioning work.
2) Creating a provisioning information le The following provisioned information is stored
in the provisioning information le.
• Network ID
• Device tag
• EUI64
• Join key
• Provisioner (name of the user who performed provisioning work by FieldMate)
• Date (Time and date when provisioning was performed by FieldMate)
This provisioning information le is required to
load from the Field Wireless Congurator to the Field Wireless Integrated Gateway. Store the le carefully.
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<7. Operation>
7-4
IM 01C27F01-01EN
Connecting to a eld wireless network
The action after installing the battery pack varies depending on the silence setting. In case of factory setting, mounting the battery pack automatically starts a search for the eld wireless network. When the Field Wireless Integrated Gateway is found, the instrument enters the join status. When the Field Wireless Integrated Gateway is not found and a specied time has elapsed, a cycle of a one-hour pause and six-minutes search is repeated until the instrument can join the eld wireless network. For details on the procedure to switch to silence mode, refer to subsection 8.3.13 “Switching to Silence Mode.”
Boot
Ready and pause
Deep Sleep
Ready
Confirm connecting status
Join
(Disconnect)
(Connect)
(Search failure)
(Search start)
(Search start)
Silence mode OFF
Silence mode ON
Configuration Tool
Configuration Tool
(Search failure)
F0704.ai
Mounting battery pack
Figure 7.4 Wireless Connection Process
NOTE
If the transmitter searches the Field Wireless Network for long time at low ambient temperature condition, sometimes error “AL.70 LOW.BAT” is displayed on the Integral Indicator. Even though using new batteries, it can occur. It occurs because of battery characteristics. After joining to the Field Wireless Network, this error will be cleared within one hour if battery has no failure.
7.5 Shutting Down the Transmitter
Shut down the transmitter as follows.
1) Remove the battery pack or set the transmitter to deep sleep mode by the Conguration Tool.
2) Close the low pressure stop valve.
3) Open the equalizing valve.
4) Close the high pressure stop valve.
5) Close the high pressure and low pressure tap valves.
NOTE
• Whenever shutting down the transmitter for a long period, remove the process line that is in the transmitter.
• The equalizing valve must be left OPEN.
• Refer to subsection 9.4.5 “Replacing the Battery Pack” for the battery pack removing.
• When storing the instrument with a battery pack inserted, it is recommended to put the instrument into deep sleep mode to conserve battery power. For details on how to switch to deep sleep mode, refer to subsection 8.3.12 “Switching to the Deep Sleep Mode.”
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<8. Setting Parameters>
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IM 01C27F01-01EN
8. Setting Parameters
This transmitter can remotely handle range changes, Tag No. setup, monitoring of self­diagnostic results, and Zero-Point Adjustment, etc. according to communication with a conguration tool.
8.1 Environment for parameter setting
After installing the battery pack, perform provisioning and have the transmitter join the eld wireless network.
This transmitter supports the OOB(out-of-band) method using the infrared communication as a provisioning method. Refer to Subsection 7.4 “Connecting to the Field Wireless Network” for details of the provisioning.
F0801.ai
Infrared port
Figure 8.1 Infrared port of the transmitter
8.2 Preparing Software for the Conguration Tool
Before using the conguration tool, conrm that CF/ DD and DeviceDTM for your transmitter (wireless EJX) are installed in the conguration tool.
CF/DD and DeviceDTM are provided by CD-ROM attached to YFGW710 Field Wireless Integrated Gateway.
Refer to YFGW710 Field Wireless Integrated Gateway (GS 01W01F01-01EN) for details.
CF (Capabilities File)/DD (Device Description)
A CF le contains information, such as the
vendor of the eld device, its model and revision, available types of process data (ow rate, temperature, pressure, etc.), and number of data items. A DD le contains the information on parameters, such as data structures and attributes.
DeviceDTM
DeviceDTM (Device Type Manager) is driver
software for eld devices provided based on the FDT (Field Device Tool) technology.
The conguration tool allows conrming the device information. For details on how to conrm the device information using the conguration tool, refer to the General Specications, YFGW710 Field Wireless Integrated Gateway (GS 01W01F01­01EN). Refer to subsection 9.2 “calibration Instruments Section” for a conguration tool of our recommendation.
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<8. Setting Parameters>
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IM 01C27F01-01EN
8.3 Setting Parameters
8.3.1 Parameter Usage and Selection
Before setting a parameter, please see the following table for a summary of how and when each parameter is used.
IMPORTANT
After setting and sending data with the conguration tool, wait 30 seconds before turning off the transmitter. If it is turned off too soon, the settings will not be stored in the transmitter.
Table 8.1 Parameter Usage and Selection
Item Description
Tag No Sets the tag No. as Device Tag (Software Tag). Sixteen characters
(alphanumeric characters, including - and •) can be set.
Output The process variable and the diagnostic result can be output.
Either or all of differential pressure (AI1:PV), static pressure (AI2:PV), temperature(AI3:PV) of capsule or amplier and self-diagnostic information (UAPMO:DIAG_STATUS) can be set to the output
Range Adjust the range corresponding for 0% to 100%.
The unit of the range, input value at 0% (LRV) and input value at 100% (URV) is set.
Note: LRV and URV can be set within the range of -32000 to 32000.
Damping time constant Adjust the output response speed for 0% to 100%.
It can be set within the range of 0.00 to 100.00 seconds.
The setting becomes invalid in the intermittent mode.
Output signal low cut mode Used mainly to stabilize output near 0 if output signal is the square root
mode. Two modes are available: forcing output to 0% for input below a specic value, or changing to proportional output for input below a specic value.
Integral indicator range of scale and unit Sets one of pressure value, or temperature value for the integral indicator
scale.
Note: LRV and URV can be set within the range of -32000 to 32000.
Unit for displayed temperature Sets a temperature unit to be displayed. Range with actual input applied Range corresponding for 0% to 100% signal is set with actual input
applied.
The output setting can be done just 100% to user’s reference pressure output.
However, when shipping it, the calibration is done in high accuracy as for DPharp. Please do the span setting by a usual range setting.
Zero Point Adjustment and Span Adjustment Handle Zero Point Adjustment and Span Adjustment.
There are two methods of Zero Point Adjustment, using external zero-
adjustment screw and using conguration tool. Reset adjustment Reset all setting of zero and span adjustment, etc. Software write protect Prohibit writing the setting data. Operational mode Set the operational mode of the sensor and integral indicator, etc.
Page 29
<8. Setting Parameters>
8-3
IM 01C27F01-01EN
8.3.2 Function Block and Menu Tree
(1) Function Block
The function of this transmitter is shown below. A specic function might not be able to be used according to the conguration tool used. When a conguration tool of our recommendation is used, the software attached to the Field Wireless Integrated Gateway is necessary for setting the dotted line part. Refer to Subsection 9.2 “Calibration Instruments Selection” for a conguration tool of our recommendation. The setting of differential pressure(Al2 block) is invalid in this instrument. The output value of Al2 object and the output status are “0.0”(zero), “Uncertain” respectively.
•Configuration
•Diagnostics/Alerts
•Power Status
•Identification
(UAPMO)
•APP Download
(UDO)
•Configuration
•Others
(CO)
•Block Info
•Configuration
(TRANSDUCER)
•UAPMO
•UDO
•CO
•TRANSDUCER
•AI1(DP)
•AI2(SP)
•AI3(ET)
Online Menu
•UAP_OPTION
•HW_WRITE_PROTECT
•ST_REV
•RESET_ENERGY_LEFT
•RADIO_SILENCE
(Configuration)
•DIAG_STATUS
•DIAG_STATUS_DETAIL[0]
•DIAG_SWITCH
•DIAG_CONFIG
(Diagnostics/Alerts)
•VERSION_REVISION
•CTS_VERSION
•ITS_VERSION
•IDENT_NUMBER
(Identification)
•DESCRIPTION
•STATE
•MAX_BLOCK_SIZE
•LAST_BLOCK_DOWNLOADED
•ERROR_CODE
(APP Download)
•COMM_ENDPOINT
•COMM_CONTRACT
•PUB_ITEM_MAX
•PUB_ITEM_NUM
•PUB_ITEM
(Configuration)
•REVISION
(Others)
•Network address of remote endpoint
•Transport layer port at remote endpoint
•Object ID at remote endpoint
•Stale data limit
•Data publication period
•Ideal publication phase
•PublishAutoRetransmit
•Configuration status
(COMM_ENDPOINT)
•ContractID
•Contract_Status
•Actual_Phase
(COMM_CONTRACT)
•ObjectID
•AttributeID
•AttributeIndex
•Size
(PUB_ITEM)
•TAG_DESC
(Block Info)
•AUTO_RECOVERY
•MODEL
•SENSOR_SN
•MEASUREMENT_RATE
•MEASURE_MODE
•WIRELESS_STATUS
•DISPLAY_SEL
•LCD_MODE
•SPECIAL_CMD
•SPECIAL_ORDER_ID
•UNIT_SEL1
•DISPLAY_UNIT1
(Configuration)
F0802-1.ai
•ENERGY_LEFT
•POWER_SUPPLY_STATUS
(Power Status)
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•Block Info
•Block Mode
•Dynamic Variables
•Configuration
•Calibration
•Others
(AI1 DP)
•TAG_DESC
(Block Info)
•Target
•Actual
•Permitted
•Normal
(Block Mode )
•PV
•SIMULATION
(Dynamic Variables)
•SIMULATE_SWITCH
•TRANSDUCER_VALUE
•SIMULATE_VALUE
(SIMULATION)
•Status
•Value **
(PV)
•Status
•Value
(TRANSDUCER_VALUE)
•Status
•Value
(SIMULATE_VALUE)
•Block Mode
•CONC_OID
•SCALE *
•PV_FTIME
(Configuration)
(Block Mode)
•Target
•Actual
•Permitted
•Normal
(SCALE)
•EU at 100% *
•EU at 0% *
•Units Index *
•Decimal *
•UPPER_LIM
•LOWER_LIM
•PV_RANGE *
•LIN_TYPE *
•FLOW_CONSTANT *
•LOW_CUTOFF
•LOWCUT_MODE *
•H/L_SWAP *
•T_ZERO_CMP *
•TEMP_ZERO *
•TEMP_SELECT *
(Others)
(PV_RANGE)
•EU at 100% *
•EU at 0% *
•Units Index *
•Decimal *
F0802-2.ai
•Block Mode
•CAL_CMD *
•CAL_STATUS
•CAL_POINT_HI *
•CAL_POINT_LO *
•CAL_MIN_SPAN
•EXTERNAL_ZERO_TRIM *
(Calibration)
(Block Mode)
•Target
•Actual
•Permitted
•Normal
Online Menu (continued)
*: When the data of these parameters is rewritten, it is necessary to set the operational mode of the block to O/S (Out of Service). **: When the data of these parameters is rewritten, it is necessary to set the operational mode of the block to Manual.
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•Block Info
•Block Mode
•Dynamic Variables
•Configuration
•Others
(AI2 SP)
•TAG_DESC
(Block Info)
•Target
•Actual
•Permitted
•Normal
(Block Mode )
•PV
•SIMULATION
(Dynamic Variables)
•SIMULATE_SWITCH
•TRANSDUCER_VALUE
•SIMULATE_VALUE
(SIMULATION)
•Status
•Value **
(PV)
•Status
•Value
(TRANSDUCER_VALUE)
•Status
•Value
(SIMULATE_VALUE)
•Block Mode
•CONC_OID
•SCALE *
•PV_FTIME
(Configuration)
(Block Mode)
•Target
•Actual
•Permitted
•Normal
(SCALE)
•EU at 100% *
•EU at 0% *
•Units Index *
•Decimal *
•UPPER_LIM
•LOWER_LIM
•PV_RANGE *
•LIN_TYPE *
•FLOW_CONSTANT *
•LOW_CUTOFF
•CAL_CMD *
•CAL_STATUS
•CAL_POINT_HI *
•CAL_POINT_LO *
•CAL_MIN_SPAN
•SP_VALUE_TYPE *
•SP_SELECT *
(Others)
(PV_RANGE)
•EU at 100% *
•EU at 0% *
•Units Index *
•Decimal *
F0802-3.ai
Online Menu (continued)
*: When the data of these parameters is rewritten, it is necessary to set the operational mode of the block to O/S (Out of Service). **: When the data of these parameters is rewritten, it is necessary to set the operational mode of the block to Manual.
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•Block Info
•Block Mode
•Dynamic Variables
•Configuration
•Others
(AI3 ET)
•TAG_DESC
(Block Info)
•Target
•Actual
•Permitted
•Normal
(Block Mode )
•PV
•SIMULATION
(Dynamic Variables)
•SIMULATE_SWITCH
•TRANSDUCER_VALUE
•SIMULATE_VALUE
(SIMULATION)
•Status
•Value **
(PV)
•Status
•Value
(TRANSDUCER_VALUE)
•Status
•Value
(SIMULATE_VALUE)
•Block Mode
•CONC_OID
•SCALE *
•PV_FTIME
(Configuration)
(Block Mode)
•Target
•Actual
•Permitted
•Normal
(SCALE)
•EU at 100% *
•EU at 0% *
•Units Index *
•Decimal *
•SENSOR_RANGE
•TERTIARY_VALUE_SEL *
(Others)
(SENSOR_RANGE)
•EU at 100%
•EU at 0%
•Units Index **
•Decimal **
F0802-4.ai
Online Menu (continued)
*: When the data of these parameters is rewritten, it is necessary to set the operational mode of the block to O/S (Out of Service). **: When the data of these parameters is rewritten, it is necessary to set the operational mode of the block to Manual.
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(2) Menu Tree
The menu tree of a conguration tool of our recommendation is shown below. Refer to Subsection 9.2 “Calibration Instruments Selection” for a conguration tool of our recommendation.
•UAPMO
•TRANSDUCER
•AI1 DP
•AI2 SP
•AI3 Temp
•Device Configuration
•Diagnostic
•Process Variable
(Device Configuration)
Online Menu
F0803-1.ai
•Configure/Setup
(UAPMO)
•Configure/Setup
(TRANSDUCER)
•UAP_OPTION
•HW_WRITE_PROTECT
•ST_REV
•RESET_ENERGY_LEFT
•RADIO_SILENCE
(Configuration)
•VERSION_REVISION
•CTS_VERSION
•ITS_VERSION
•IDENT_NUMBER
(Identification)
•AUTO_RECOVERY
•MODEL
•SENSOR_SN
•MEASUREMENT_RATE
•MEASURE_MODE
•WIRELESS_STATUS
•DISPLAY_SEL
•LCD_MODE
•SPECIAL_CMD
•SPECIAL_ORDER_ID
•UNIT_SEL1
•DISPLAY_UNIT1
(Configuration/Calibration)
•TAG_DESC
(Block Info)
•Configure/Setup
(AI1 DP)
•Target
•Actual
•Permitted
•Normal
(Block Mode)
•Block Mode
•CONC_OID
•SCALE *
•PV_FTIME
(Configuration)
•Target
•Actual
•Permitted
•Normal
(Block Mode)
•Block Mode
•CAL_CMD *
•CAL_STATUS
•CAL_POINT_HI *
•CAL_POINT_LO *
•CAL_MIN_SPAN
•EXTERNAL_ZERO_TRIM *
(Calibration)
•Target
•Actual
•Permitted
•Normal
(Block Mode)
•UPPER_LIM
•LOWER_LIM
•PV_RANGE *
•LIN_TYPE *
•FLOW_CONSTANT *
•LOW_CUTOFF
•LOWCUT_MODE *
•H/L_SWAP *
•T_ZERO_CMP *
•TEMP_ZERO *
•TEMP_SELECT *
(Others)
•EU at 100% *
•EU at 0% *
•Units Index *
•Decimal *
(PV_RANGE)
•EU at 100% *
•EU at 0% *
•Units Index *
•Decimal *
(SCALE)
•TAG_DESC
(Block Info)
*: When the data of these parameters is rewritten, it is necessary to set the operational mode of the block to O/S (Out of Service).
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•Configure/Setup
(AI2 SP)
F0803-2.ai
•TAG_DESC
(Block Info)
•UPPER_LIM
•LOWER_LIM
•PV_RANGE *
•LIN_TYPE *
•FLOW_CONSTANT *
•LOW_CUTOFF
•CAL_CMD*
•CAL_STATUS
•CAL_POINT_HI *
•CAL_POINT_LO *
•CAL_MIN_SPAN
•SP_VALUE_TYPE *
•SP_SELECT *
(Others)
•Target
•Actual
•Permitted
•Normal
(Block Mode)
•EU at 100%
•EU at 0%
•Units Index *
•Decimal *
(PV_RANGE)
(Block Mode)
•Target
•Actual
•Permitted
•Normal
(AI3 Temp)
(Block Info)
•TAG_DESC
•SENSOR_RANGE
•TERTIARY_VALUE_SEL *
(Others)
•Block Mode
•CONC_OID
•SCALE *
•PV_FTIME
(Configuration)
•Target
•Actual
•Permitted
•Normal
(Block Mode)
•EU at 100% *
•EU at 0% *
•Units Index *
•Decimal *
(SCALE)
•EU at 100% *
•EU at 0% *
•Units Index *
•Decimal *
(PV_REMGE)
•Configure/Setup
•Block Mode
•CONC_OID
•SCALE *
•PV_FTIME
(Configuration)
•Target
•Actual
•Permitted
•Normal
(Block Mode)
•EU at 100% *
•EU at 0% *
•Units Index *
•Decimal *
(SCALE)
Device Configuration (continued)Online Menu (continued)
*: When the data of these parameters is rewritten, it is necessary to set the operational mode of the block to O/S (Out of Service).
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•UAPMO
(Diagnostic)
F0803-3.ai
•Device Diagnostics
(UAPMO)
•DIAG_STATUS
•DIAG_STATUS_DETAIL[0]
•DIAG_SWITCH
•DIAG_CONFIG
(Diagnostics/Alerts)
•ENERGY_LEFT
•POWER_SUPPLY_STATUS
(Power Status)
•AI1 DP
•AI2 SP
•AI3 Temp
(Process Variable)
•Process Variable
(AI1 DP)
•PV
•SIMULATION
(Dynamic Variables)
•Status
•Value**
(PV)
•SIMULATE_SWITCH
•TRANSDUCER_VALUE
•SIMULATE_VALUE
(SIMULATION)
•Status
•Value
(TRANSDUCER_ VALUE)
•Status
•Value
(SIMULATE_ VALUE)
•Process Variable
(AI2 SP)
•PV
•SIMULATION
(Dynamic Variables)
•Status
•Value**
(PV)
•SIMULATE_SWITCH
•TRANSDUCER_VALUE
•SIMULATE_VALUE
(SIMULATION)
•Status
•Value
(TRANSDUCER_ VALUE)
•Status
•Value
(SIMULATE_ VALUE)
•Process Variable
(AI3 Temp)
•PV
•SIMULATION
(Dynamic Variables)
•Status
•Value**
(PV)
•SIMULATE_SWITCH
•TRANSDUCER_VALUE
•SIMULATE_VALUE
(SIMULATION)
•Status
•Value
(TRANSDUCER_ VALUE)
•Status
•Value
(SIMULATE_ VALUE)
Online Menu (continued)
**: When the data of these parameters is rewritten, it is necessary to set the operational mode of the block to Manual.
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8.3.3 Parameters for Wireless Communication
(1) Network Information
Concentrator object block : Conguration
Allows conrming the network information.
(2) Update Time
CO block : Data publication period
Sets the update time value to 1 to 3,600 seconds. The setting affects the battery life.
(3) Measurement Mode
TRANSDUCER block : MEASURE_ MODE
The setting affects the battery life; it becomes shorter in the continuous display mode. When the update period is set to 1 second in intermittent mode, the mode is automatically switched to continuous mode. When the update period is 1 second, the mode is continuous mode, regardless of the measurement mode.
(4) Measurement Rate
TRANSDUCER block: MEASUREMENT_ RATE
Reads the measurement rate value from 1 to 3600 seconds. The shorter the measurement period, the shorter the battery life.
(5) Remaining battery life
UAPMO block: ENERGY_LEFT
The number of days of remaining battery life is indicated assuming ambient temperature condition as 23 degrees Celsius. While within 24 hours after power on, the number of days of 1461 (4 years) is indicated.
UAPMO block: RESET_ENERGY_LEFT
The number of days of battery life is reset. When changing battery, initialization of the remaining battery life is performed by RESET_ ENERGY_LEFT parameter. After initialization of the remaining battery life, conrm the number of days of battery life by ENERGY_LEFT parameter.
6) LCD display mode
TRANSDUCER block : LCD_MODE
0) LCD off [Bar graph not displayed]
1) LCD intermittent display [Bar graph not displayed]
2) LCD continuous display [Bar graph not displayed]
5) LCD intermittent display [Bar graph not displayed]
6) LCD continuous display [Bar graph not displayed]
9) LCD intermittent display [Bar graph displayed]
10) LCD continuous display [Bar graph displayed]
When the continuous display mode is set to ON, the LCD is on continuously. When the continuous display mode is set to OFF, the LCD turns on intermittently or turns off.
The interval times of display are shown as follows.
• LCD continuous display The LCD displays while 5 minutes then turns
off.
• LCD intermitted display The LCD displays while 3 seconds then turns
off.
• LCD continuous display + LCD intermitted display
The LCD displays while 5 minutes then turns
intermittently.
When measurement mode is set as continuous mode, the LCD displays continuously regardless of display mode.
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8.3.4 Tag and Device Information
If these are specied when ordering, the designated Tag No. and device information are set and shipped. Tag No. and device information can be checked as follows.
• Procedure to call up the tag No. and device information
- Device Tag ( Software Tag )
- Software Tag (only if needed) This is specied when writing characters (up
to 16 characters) of ampliers TAG that differ from characters specied in Tag No.
- TAG_DESC This is a universal parameter to store the
comment that describes the content of the tag located in the TRANSDUCER and AI blocks.
The AI1 and AI3 blocks of the AI blocks
correspond to the pressure and temperature, respectively.
• When changing the device information, input the information based on the following limitation on the number of characters.
- Message function (up to 32 characters) TRANSDUCER block : TAG_DESC AI1, AI3 block : TAG_DESC
8.3.5 Unit
The unit parameter is set at the factory before shipment if specied at the time of order. Follow the procedure below to change the unit parameter.
• Procedure to call up the Unit display (Units Index) Al1, Al3 block : SCALE: Units Index
To change the Unit display, choose desired unit
among the list of displayed unit selecting AI1 block as for the pressure, and AI3 block as for temperature in the AI blocks.
8.3.6 Range Change
The range values are factory-set as specied by the customer. To change the range, follow the steps below.
Keypad input — LRV and URV The measurement span is determined by the upper and lower range values. In this method, the upper and lower range values can be set independently, and the span changes according to the range limit values sent to the transmitter.
• Procedure to call up the PV_RANGE display. AI1 block : PV_RANGE
Select the AI1 block for the pressure, then
select “EU at 0%” and “EU at 100%” displayed in the PV_RANGE parameters. And input the lower range and upper range values for the range.
8.3.7 Output Signal Low Cut Mode Setup
Low cut mode can be used to stabilize the output signal near the zero point. (There is 10% of hysteresis at only point of transition from low to high)
[Setup Low Cut Value]
• Procedure to call up the LOW_CUTOFF display AI1 block: LOW_CUTOFF
Select the AI1 block for the pressure, and then
input a value in the output range from 0 to 20% for the LOW_CUTOFF parameter.
Example: setup LOW_CUT of output to 15% LOW_CUTOFF = (“Eu at 100%” – “Eu at 0%”) * 0.15 + “Eu at 0%”
[Setup Low Cut Mode]
• Procedure to call up the LOWCUT_MODE display AI1 block: LOWCUT_MODE
Select the AI1 block for the pressure, and then
select Linear or Zero for the LOWCUT_MODE parameter.
F0804.ai
(%)
50
20
0 50 (%)
Low cut mode “Linear” Low cut mode “Zero”
Low cut at 20%
(%)
50
20
0 50 (%)
Low cut at 20%
Output
Output
Input Input
Figure 8.2 Low Cut Mode
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The low cut point has hysteresis so that the output around the point is behaved as below gure.
<Example>
Output mode: Linear Low cut mode: Zero
Low cut: 20.00%
Output
Setting range: 0 to 20%
Input
0%
(20%)
2%
Low
cut point
Hystrersis fixed at 10% of the cut point
F0805.ai
8.3.8 Integral Indicator Scale Setup
The following three displays are available for the integral indictor: pressure and temperature. The following three variables can be displayed on the integral indicator: % of pressure range, and % of temperature range.
Available displays
Description
and related parameters
% of range
(PRES %)
Indicates input pressure in –10 to 110% range depending on the set range (LRV and URV).
PRES % 45.6 %
Follow the procedure described in (a) to (b) below to set the integral indicator.
(a) Display Selection
Display set to DISPLAY_SEL is displayed on the integral indicator.
• Procedure to call up the DISPLAY_DEL display TRANSDUCER block: DISPLAY_SEL
The DISPLAY_SEL parameter enables the
pressure (AI1 block), and, temperature (AI3 block) to be displayed on the LCD. Select whether or not to enable each block to be displayed.
(b) Cyclic Display
Information in the AI1, AI3 blocks can be displayed cyclically according to the display On/Off setting for the pressure (AI1 block), and temperature (AI3 block) selected in the DISPLAY_SEL parameter.
8.3.9 Unit for Displayed Temperature
When the instrument is shipped, the temperature units are set to C (Centigrade). Follow the procedure below to change this setting.
• Procedure to call up the Unit Index display AI3 Block: SENSOR_RANGE: Units Index
Conrm that ºC (deg C) is selected in the Units
Index parameter for the temperature(AI3 block).
Note: When the unit is changed by units index parameter in
temperature (AI3 block), units of capsule temperature is also changed.
8.3.10 Zero Point Adjustment and Span Adjustment
Each EJX-B series transmitter is characterized by factory. But there are some errors caused by environment and installed posture.
There are Zero and Span Adjustments to ne-tune those errors. Zero Adjustment is adjustment for one point to adjust the bottom value of the measurement range as 0% of output.
The Span Adjustment denes input and output characteristic between two points that’s one side assumed as standard. This is used when there is doubt of span drift or when it is impossible to make zero at absolute pressure with adjustment for user’s pressure standard.
(1) Zero Point Adjustment
a. To set 0% at current input, perform
following procedure.
This method is used only when the pressure at bottom of measurement range is zero.
• Procedure to call up the calibration adjustment parameter (CAL_STATUS) AI1 block: CAL_STATUS
Conrm the value of CAL_SUCCESS that is 1
using the CAL_STATUS parameter.
b. To match current input and output value,
follow procedure
Like the measurement that is impossible to set process pressure to 0kPa, output value is adjustment to actual level by other measurement using glassgage.
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Example:
Pressure Transmitter’s span is 0 to 25.00kPa,
current level is 13.50kPa, current output is
13.83kPa.
• Procedure to call up the lower limit adjustment parameter (CAL_POINT_LO). AI1 Block: CAL_CMD: CAL_POINT_LO
Set the actual level value of 13.50 kPa to the
CAL_POINT_LO parameter for the pressure (AI1 block). Apply an actual input and conrm the value specied in CAL_POINT_LO as the output value.
• Procedure to call up the calibration adjustment parameter (CAL_CMD). AI1 block: CAL_CMD: CAL_LOW
The present output is changed from 13.83kPa
to 13.50 kPa in CAL_LOW of the pressure (AI1 block) CAL_CMD parameter.
• Procedure to call up the calibration status parameter (CAL_STATUS).
AI1 block: CAL_STATUS
Conrm the value of CAL_SUCCESS that is 1
using the CAL_STATUS parameter.
c. Using External Zero adjustment Screw
External Zero-adjustment parameter (EXTERNAL_ ZERO_TRIM) can set permission or prohibition to adjustment by External Zero-adjustment Screw.
Set “Trim on” to use the External Zero-adjustment Screw. (“Trim on” at shipment)
Use a slotted screwdriver to turn the zeroadjustment screw. Equalize the transmitter, then turn the screw clockwise to increase the output or counterclockwise to decrease the output. The zero point adjustment can be made with a resolution of 0.01% of the setting range. The degree of zero adjustments varies with the screw turning speed; turn the screw slowly to make a ne adjustment, quickly to make a rough adjustment.
IMPORTANT
When zeroing with the zero-adjustment screw, turn the screw rmly until ▲ or ▼ mark is displayed on the integral indicator since there exists mechanical dead-band of the screw.
(2) Span Adjustment
Span Adjustment is function to change the input and output characteristic that assumed the bottom value (zero point) of measurement range a standard.
Therefore, perform span adjustment (adjustment of the upper limit value) after zero adjustment (adjustment of bottom limit value).
After adding the pressure at point of adjustment and setting pressure value as parameter, the transmitter calculates quantity of adjustment and performs adjustment automatically.
• Procedure to call up the lower limit value parameter (CAL_POINT_LO) AI1 block: CAL_CMD: CAL_POINT_LO
Set the lower limit adjustment value on
the pressure (AI1 block) CAL_POINT_LO parameter screen. Apply a reference pressure corresponding to the lower limit of the measurement range to the pressure transmitter and conrm the pressure when it stabilized.
• Procedure to call up the calibration adjustment parameter (CAL_CMD) AI1 block: CAL_CMD: CAL_LOW
Conrm the lower limit of the measurement
range in CAL_LOW of the pressure (AI1 block) CAL_CMD parameter.
• Procedure to call up the calibration status parameter (CAL_STATUS) AI1 block: CAL_STATUS
Conrm the value of CAL_SUCCESS that is 1
using the CAL_STATUS parameter.
• Procedure to call up the upper limit adjustment parameter (CAL_POINT_HI). AI1 block: CAL_CMD: CAL_POINT_HI
Set the upper limit adjustment value for
the pressure (AI1 block) CAL_POINT_HI parameter. Apply a reference pressure corresponding to the upper limit of the measurement range to the pressure transmitter and conrm the when it has stabilized.
• Procedure to call up the calibration adjustment parameter (CAL_CMD). AI1 block: CAL_CMD: CAL_HIGH
Conrm the upper limit of the measurement
range in CAL_HIGH of the pressure (AI1 block) CAL_CMD parameter.
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• Procedure to call up the calibration status parameter (CAL_STATUS) AI1 block: CAL_STATUS
Conrm the value of CAL_SUCCESS that is 1
using the CAL_STATUS parameter.
(3) Reset Adjustments to Factory Setting
A reset to the factory setting can be performed using CAL_CLEAR of the pressure (AI1 block) CAL_CMD parameter for the input pressure. After calibration, conrm status by using the pressure (AI1 block) CAL_STATUS.
The amount of adjustment made by the external zero-adjustment screw can be reset to the initial setting as well.
• Procedure to call up the calibration adjustment parameter (CAL_CMD). AI1 block: CAL_CMD: CAL_CLEAR
8.3.11 Software Write Protect
Hardware write protection and software write protection functions are available for this transmitter
• Procedure to call up the protection setting parameter (UAP_OPTION) UAPMO block: UAP_OPTION
The following settings can be congured in the
UPA_OPTION parameter.
- Setting to enable or disable changing the
setting to the DIAG_SWITCH and DIAG_ CONFIG parameters.
- Setting to enable or disable the hardware
write protection switch.
- Setting to enable or disable software write
protection.
• Procedure to call up the protection setting display parameter (HW_WRITE_PROTECT) UAPMO block: HW_WRITE_PROTECT
The HW_WRITE_PROTECT parameter
enables the switch status of hardware write protection to be displayed.
For the relationship between hardware write
protection and software write protection, refer section 10. “Parameter Summary”.
8.3.12 Switching to Deep Sleep Mode
When the instrument will not be used for a long time, switch the instrument to deep sleep mode to conserve battery power. To switch to deep sleep mode, follow the procedure below.
• Procedure to call up the switch-to-deep-sleep parameter TRANSDUCER block: SPECIAL_CMD
Set Deep Sleep mode (0002) to the SPECIAL_
CMD parameter for the TRANSDUCER block. To start from deep sleep mode, either remove and insert the battery pack, or use the conguration tool.
NOTE
• This procedure to switch to deep sleep mode can only be use for wireless communication.
• Transmitter becomes the stop state after setting deep sleep mode and cannot reply any request from Communication Tool.
• For this reason, there is the case that an error is display on Communication Tool.
• To wake up from deep sleep mode, please pull battery pack, and wait more than 30 seconds before attaching battery back.
8.3.13 Switching to Silence Mode
This is a function to pause the instrument when it cannot join the eld wireless network after a specied time has elapsed. This function is effective in conserving battery power when, for example, the installation of the eld wireless integrated gateway is delayed compared to that of eld wireless devices. The default value is 28800 seconds (about 8 hours). Thereafter, a cycle of a one-hour pause and six-minute search is repeated until the instrument can join the eld wireless network.
• Procedure to call up the switch-to-silence parameter (RADIO_SILENCE) UAPMO block: RADIO_SILENCE
Set 0 to 231 seconds for the RADIO_SILENCE
parameter of the UAPMO block. If 0 is set, the RADIO_SILENCE parameter is invalid. To start from silence mode, either remove and insert the battery pack, or use the conguration tool.
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8.4 Self-Diagnostics
8.4.1 Identify Problems by Using the Communicator
First, check DIAG_STATUS of the self-diagnostic result.
UAPMO block: DIAG_STATUS
Any of the four categories (Check function, Maintenance required, Failure, and Off specication) according to NAMUR NE107* is supplied to DIAG_STATUS of each diagnostic result.
Table 8.3 DIAG_STATUS
Bits Contents
Example NAMUR NE107 Categorization
Bit31 (MSB) F: Failure status ---
Bit30 C: Function check status ---
Bit29 O: Out of specication status ---
Bit28 M: Maintenance required status ---
Bit27 Faults in electronics F
Bit26 Faults in sensor or actuator element F
Bit25 Installation, calibration problem C
Bit24 Out of service C
Bit23 Outside sensor limits O
Bit22 Environmental conditions out of device specication O
Bit21 Fault prediction: Maintenance required M
Bit20 Power is critical low: maintenance need short-term M
Bit19 Power is low: maintenance need mid-term M
Bit18 Software update incomplete C
Bit17 Simulation is active C
Bit16-Bit08 reserved by WCI ---
Bit07-Bit01 vendor specic area ---
Bit00 Detail information available
1: available 0: no available
---
2) When changing the Diag Switch parameter: a) UAPMO block : UAP_OPTION, select
enable.
b) UAPMO block : DIAG_SWITCH, turn ON
Check function for Out of Service.
c) UAPMO block : UAP_OPTION, select
disable.
Note: Be careful when changing the alert category and turning
detection on and off as described above. Be sure to set UAP OPTION to disable again to prevent setting errors.
* NAMUR NE107 “Self-Monitoring and Diagnosis of Field
Devices”
Checking the DIAG_STATUS category allows taking the proper action. The DIAG_STATUS contents are common for all ISA devices, and the setting for the DIAG_STATUS category can be changed. For further details, refer to DIAG_ STATUS_Detail. In DIAG_STATUS Contents that can be diagnosed by the EJX, the alert category set in Out of Service can be changed to Check function. To do so, follow one of the two procedures below.
1) When using the DIAG_CONFIG parameter: a) UAPMO block : UAP_OPTION, select
enable.
b) UAPMO block : DIAG_CONFIG, change Out
of Service from Failure to Check function.
c) UAPMO block : UAP_OPTION, select
disable.
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Table 8.4 Diagnostic Results Summary
DIAG_STATUS Contents
NAMUR
NE107
Category
DIAG_STATUS_DETAIL Description
Faults in electronics F
AMP_T_SENSOR_FAIL Amplier temperature sensor failure
AMP_EEPROM_FAIL Amplier EEPROM failure
AMP_EEP_IRREGULAR AMP EEPROM version not correct
AMP_F1_ERROR F1 error
G_A_COMM_FAIL G/A failure
FC_DELTA_T_FAIL C-side delta T circuit failure
FR_DELTA_T_FAIL R-side delta T circuit failure
WL_AD_FAIL
Battery voltage not detected (AMP failure)
Faults in sensor or actuator element
F
FC_SENSOR_FAIL C sensor frequency failure
FR_SENSOR_FAIL R sensor frequency failure
CAP_T_SENSOR_FAIL Capsule temperature sensor failure
CAP_EEPROM_FAIL Capsule EEPROM failure
CAP_EEP_IRREGULAR CAP EEPROM version not correct
FC_UNOSC_FAIL C sensor oscillation stop failure
FR_UNOSC_FAIL R sensor oscillation stop failure
Installation, calibration problem C
DP_TRIM_SPAN_OUTSIDE
Pressure span adjustment variable outside of range
DP_TRIM_ZERO_OUTSIDE
Pressure zero adjustment variable outside of range
SP_TRIM_SPAN_OUTSIDE
Static pressure span adjustment variable outside of range
SP_TRIM_ZERO_OUTSIDE
Static pressure zero adjustment variable outside of range
LCD_OUTSIDE_LIMIT LCD display outside of limits
Out of service O
AI1_OUT_OF_SERVICE AI1 O/S mode
AI2_OUT_OF_SERVICE AI2 O/S mode
AI3_OUT_OF_SERVICE AI3 O/S mode
Outside sensor limits C
DP_OUTSIDE_LIMIT Pressure outside of range
SP_OUTSIDE_LIMIT Static pressure outside of range
CAPT_OUTSIDE_LIMIT Capsule temperature outside of range
AMPT_OUTSIDE_LIMIT Amplier temperature outside of range
Environmental conditions out of device specication.
O
DP_OUTSIDE_RANGE Pressure setting outside of range
SP_OUTSIDE_RANGE
Static pressure setting outside of range
Power is critical low: maintenance need short-term.
M WL_DEEPSLP_ALM Deep sleep due to low battery
Power is low: maintenance need mid-term
M WL_LOWBAT_ALM Low battery
Simulation is active C
AI1_SIMULATION_ACTIVE AI1 Simulation mode
AI2_SIMULATION_ACTIVE AI2 Simulation mode
AI3_SIMULATION_ACTIVE AI3 Simulation mode
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8.4.2 Checking with Integral Indicator
NOTE
If an error is detected by running self-diagnostics, an error number is displayed on the integral indicator. If there is more than one error, the error number changes at three-second intervals. See table 9.3 regarding the alarm codes.
F0806.ai
Figure 8.6 Integral Indicator
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9. Maintenance
9.1 Overview
WARNING
Since the accumulated process uid may be toxic or otherwise harmful, take appropriate care to avoid contact with the body or inhalation of vapors when draining condensate or venting gas from the transmitter pressure-detector section and even after dismounting the instrument from the process line for maintenance.
Maintenance of the transmitter is easy due to its modular construction. This chapter describes the procedures for calibration, adjustment, and the disassembly and reassembly procedures required for component replacement.
Transmitters are precision instruments. Please carefully and thoroughly read the following sections for information on how to properly handle them while performing maintenance.
IMPORTANT
• As a rule, maintenance of this transmitter should be done in a maintenance room that has all the necessary tools.
• The CPU assembly, RF assembly and integral indicator contain sensitive parts that can be damaged by static electricity.
Take precautions such as using a grounded
wrist strap when handling electronic parts or touching the board circuit patterns. Also be sure to place the removed the CPU assembly, RF assembly and integral indicator into a bag with an antistatic coating.
9.2 Calibration Instruments Selection
Table 9.1 lists the instruments that can be used to calibrate a transmitter. When selecting an instrument, consider the required accuracy level. Exercise care when handling these instruments to ensure they maintain the specied accuracy.
9.3 Calibration
Use the procedure below to check instrument operation and accuracy during periodic maintenance or troubleshooting.
1) Insert the battery pack and then perform provisioning to have the transmitter join the Field Wireless Network for calibration.
2) Set the update period to 1 second using the conguration tool to set continuous for the transmitter.
3) Connect the devices as shown in Figure 9.1 and allow the transmitter to warm up for at least 5 minutes.
IMPORTANT
If the measurement range 0% point is 0 kPa or shifted in the positive direction (suppressed zero), the reference pressure should be applied as shown in the gure. If the measurement range 0% point is shifted in the negative direction (elevated zero), the reference pressure should be applied using a vacuum pump.
4) Apply reference pressures of 0%, 50%, and 100% of the measurement range to the transmitter. Calculate the errors (differences between digital voltmeter readings and reference pressures) as the pressure is increased from 0% to 100% and is decreased from 100% to 0%, and conrm that the errors are within the required accuracy.
(Note) If output mode is “SQUARE MODE”, measurement range
of 0, 6.25, 56.25, 100% instrument adds corresponding reference pressure.
5) When the test is nished, reset the update time to the initial value using the conguration tool.
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Table 9.1 Instruments Required for Calibration
Name Yokogawa-recommended Instrument Remarks
Provisioning device
• FieldMate (R2.02.01 or later) DeviceFile (R3.01.01 or later)
• Infrared Adapter certied by Yokogawa Supplier: ACTiSYS Product name: IrDA InfraRed USB Adaptor Product number: IR224UN
Conguration tool
• Field Wireless Integrated Gateway attached Software Field Wireless Congurator Field Wireless Management Tool
• Field Wireless System related Product Plant Resource Manager (PRM) (R3.05 or later)
Digital manometer
Model MT220 precision digital manometer
1) For 10 kPa class Accuracy: ±(0.015% of rdg + 0.015% of F.S.) for 0 to 10 kPa
±(0.2% of rdg + 0.1% of F.S.) . . . . . . . . for -10 to 0 kPa
2) For 130 kPa class
Accuracy: ±0.02% of rdg . . . . . . . . . . . . . . . . . . . . for 25 to 130 kPa
±5digits. . . . . . . . . . . . . . . . . . . . . . . . . for 0 to 25 kPa
±(0.2% of rdg + 0.1% of F.S.) . . . . . . . . for -80 to 0 kPa
3) For 700 kPa class
Accuracy: ±(0.02% of rdg + 3digits) . . . . . . . . . . . for 100 to 700 kPa
±5 digits . . . . . . . . . . . . . . . . . . . . . . . . for 0 to 100 kPa
±(0.2% of rdg + 0.1% of F.S.) . . . . . . . . for -80 to 0 kPa
4) For 3000 kPa class
Accuracy: ±(0.02% of rdg + 10 digits) . . . . . . . . . . for 0 to 3000 kPa
±(0.2% of rdg + 0.1% of F.S.) . . . . . . . . for -80 to 0 kPa
5) For 130 kPa abs class
Accuracy: ±(0.03% of rdg + 6 digits). . . . . . . . . . . for 0 to 130 kPa abs
Select a manometer having a pressure range close to that of the transmitter.
Pressure generator
Model MC100 pneumatic pressure standard for 200 kPa {2 kgf/cm2}, 25 kPa {2500 mmH2O}
Accuracy: ±0.05% of F.S.
Requires air pressure supply.
Dead weight gauge tester 25 kPa {2500 mmH2O}
Accuracy: ±0.03% of setting
Select the one having a pressure range close to that of the transmitter.
Pressure source
Model 6919 pressure regulator (pressure pump)
Pressure range: 0 to 133 kPa {1000 mmHg}
Prepare the vacuum pump for negative pressure ranges.
Note: The above table contains the instruments capable of performing calibration to the 0.2% level. Since special maintenance and
management procedures involving traceability of each instrument to higher-level standards are required for calibration to the 0.1% or higher level, there may be difculties in calibration to this level in the eld. For calibration to the 0.1% level, contact Yokogawa representatives from which the instrument was purchased or the nearest Yokogawa ofce.
P
Reference pressure
Pressure generator
Supply pressure
P
Reference pressure
Precision digital manometer
Pressure source
Using pressure generator
Using pressure source with manometer
F0901.ai
Figure 9.1 Instrument Connections
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9.4.1 Replacing the Integral Indicator
This subsection describes the procedure for replacing an integral indicator. (See gure 9.2)
Removing the Integral Indicator
1) Remove the cover.
2) While supporting the integral indicator with one hand, loosen its two mounting screws.
3) Dismount the LCD board assembly from the RF assembly.
When doing this, carefully pull the LCD board
assembly straight forward so as not to damage the connector pins between it and the RF assembly.
Attaching the Integral Indicator
1) Align both the LCD board assembly and RF assembly connectors and engage them.
2) Insert and tighten the two mounting screws.
3) Replace the cover.
Zero­adjustment screw
RF assembly
CPU assembly
Amplifier Cover
Mounting screw
Integral indicator
Boss
Stud
F0902.ai
Press forward
Output terminal cable
Zero-adjustment screw pin
Figure 9.2 Removing and Attaching LCD Board
Assembly and CPU Assembly
9.4 Disassembly and Reassembly
CAUTION
Precautions for the intrinsic safety explosion prevention type instrument
Intrinsic safe type transmitters must be, as a rule, removed to a non-hazardous area for maintenance and be disassembled and reassembled to the original state. Check and conrm the insulation when it is reassembled to the original state. Check and conrm the insulation when it is reassembled to the original state. Refer to section 2.7 “Insulation Resistance and Dielectric Strength Test” for details of Resistance Test.
This section describes procedures for disassembly and reassembly for maintenance and component replacement.
CAUTION
Always remove Battery pack and shut off pressures before disassembly and assembly. Use proper tools for all operations.
Table 9.2 shows the tools required.
Table 9.2 Tools for Disassembly and Reassembly
Tool Quantity Remarks
Phillips screwdriver
1 JIS B4633, No. 2
Slotted screwdriver
1
Allen wrenches 3 JIS B4648
One each, nominal 3, 4 and 2.5 mm Allen
wrenches Wrench 1 Width across ats, 17 mm Torque wrench 1 Adjustable
wrench
1
Socket wrench 1 Width across ats, 16 mm Socket driver 1 Width across ats, 5.5 mm Tweezers 1
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9.4.2 Replacing the RF Assembly
This subsection describes how to replace the RF assembly (see Figure 9.2).
Removing the RF assembly
1) Remove the cover.
2) Remove the integral indicator (refer to subsection 9.4.1).
3) Remove the two stud bolts by using a socket driver (width across ats: 5.5 mm).
4) Disconnect the RF assembly from the CPU assembly. When doing this, carefully pull the RF assembly straight forward so as not to damage the connector pins between it and the CPU assembly.
5) Disconnect the antenna cable that connects the RF assembly and the antenna.
NOTE
Be careful not to apply excessive force to the RF assembly and the connector of the antenna cable when removing it.
Mounting the RF assembly
1) Connect the antenna cable between the RF assembly and the antenna.
2) Align both the RF assembly and CPU assembly connectors and engage them.
3) Tighten the two stud bolts.
4) Mount the integral indicator (refer to subsection
9.4.1).
5) Replace the cover.
9.4.3 Replacing the CPU Assembly
This subsection describes how to replace the CPU assembly (see Figure 9.2).
Removing the CPU assembly
1) Remove the cover. Remove the integral indicator and the RF assembly (refer to subsections 9.4.1 and 9.4.2).
2) Turn the zero-adjustment screw to the position as shown in Figure 9.2.
3) Disconnect the power cable and the output terminal cable (cable with brown connector at the end). When doing this, lightly press the side of the CPU assembly connector and pull the cable connector to disengage (see the upper left of Figure 9.2).
4) Use a socket driver (width across ats, 5.5 mm) to loosen the two bosses.
5) Carefully pull the CPU assembly straight forward to remove it.
6) Disconnect the at cable (cable with white connector at the end) that connects the CPU assembly and the capsule.
NOTE
Be careful not to apply excessive force to the CPU assembly when removing it.
Mounting the CPU assembly
1) Connect the at cable (with white connector) between the CPU assembly and the capsule.
2) Connect the output terminal cable (with brown connector) and the power cable to the CPU assembly.
NOTE
Make certain that the cables do not get pinched between the case and the edge of the CPU assembly.
3) Align and engage the zero-adjustment screw pin with the groove on the bracket on the CPU assembly. Then insert the CPU assembly straight onto the post in the amplier case.
4) Tighten the two bosses. Mount the RF assembly, and the integral indicator (refer to subsections 9.4.1 and 9.4.2).
IMPORTANT
Conrm that the zero-adjustment screw pin is placed properly in the groove on the bracket prior to tightening the two bosses. If it is not, the zero­adjustment mechanism will be damaged.
5) Replace the cover.
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9.4.4 Cleaning and Replacing the Capsule Assembly
CAUTION
Precautions for the intrinsic safety explosion prevention type instrument
Modication is not permitted by the user for intrinsic safety explosion prevention type transmitter. Consult our company when you want to exchange capsule assembly. Execute it only at time when the following points were conrmed for exchange capsule assembly in the same range of measurement.
• Exchanged capsule assembly uses the one of the same specication.
• Tighten Setscrew to x the transmitter section and the pressure detector section surely after ending maintenance.
This subsection describes the procedures for cleaning and replacing the capsule assembly. (See gure 9.3.)
Removing the Capsule Assembly
IMPORTANT
Exercise care as follows when cleaning the capsule assembly.
• Handle the capsule assembly with care, and be especially careful not to damage or distort the diaphragms that contact the process uid.
• Do not use a chlorinated or acidic solution for cleaning.
• Rinse with clean water after cleaning, please dry until completely dry.
1) Remove the CPU assembly as shown in subsection 9.4.3.
2) Remove the ve setscrews, the stopper bolt, and the stopper that connect the transmitter section and pressure-detector section.
3) Remove the hexagon-head screw and the stopper.
4) Separate the transmitter section and pressure­detector section.
5) Clean the capsule assembly or replace with a new one.
Reassembling the Capsule Assembly
1) Reattach the transmitter section to the pressure-detector section.
Reattach the stopper with the hexagon-head
screw.
2) Tighten the two setscrews.(Tighten the screws to a torque of 1.5 N·m)
3) Install the CPU assembly according to subsection 9.4.3.
4) After completing reassembly, adjust the zero point and recheck the parameters.
Stopper
Stopper bolt
Transmitter section
Setscrew
Pressure-detector section
Pipe
F0903.ai
Figure 9.3 Removing and Mounting the Pressure-
detector Section
9.4.5 Replacing the Battery Pack
Removing
1) Remove the terminal box cover.
2) Loosen the two battery pack mounting screws (see Figure 9.5).
3) Pull out the Battery pack.
F0904.ai
The battery pack mounting screws cannot be separated from the battery pack so as to prevent drop-off.
Figure 9.4 Removing the Battery Pack
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Remounting
1) Insert the new battery pack lightly.
2) Push the center of the battery pack and insert it securely.
3) Tighten the two battery pack mounting screws to a torque of approximately 0.7 N·m.
4) Replace the terminal box cover.
5) Initialize the remaining battery life.
How to initialize the remaining of battery life,
refer to subsection 8.3.3 “Parameters for Wireless Communication”.
9.4.6 Replacing the Batteries
The batteries in the battery pack can be replaced.
WARNING
Be sure to replace the batteries or disassemble and assemble the battery pack in a safe location. Doing so in an explosive area could cause an explosion.
CAUTION
When replacing the batteries, be sure to replace the two batteries at the same time and do not use an old and a new battery together.
Disassembling
1) Loosen the two battery case mounting screws (Figure 9.5).
2) Separate the battery case into two parts.
3) Remove the old batteries.
Assembling
1) Insert new batteries into the battery case. Be careful of the orientation of the batteries.
2) Attach the two parts of the battery case to each other.
3) Tighten the two battery case mounting screws to a torque of approximately 0.7 N·m.
F0905.ai
The battery pack mounting screws
cannot be separated from battery pack so as to prevent drop-off.
Figure 9.5 Removing the Battery Pack
9.4.7 Handling Batteries
This battery pack contains two “D” size primary lithium/thionyl chloride batteries. Each battery contains approximately 5 grams of lithium, for a total of 10 grams in each pack. Under normal conditions, the battery materials are self-contained and are not reactive as long as the batteries and the pack integrity are maintained. Care should be taken to prevent thermal, electrical or mechanical damage. Protect the electrode of the battery pack to avoid rapid electrical discharge. Discharged a battery may lead to uid leakage and excessive heat. Batteries should be stored in a clean and dry area. For maximum battery life, storage temperature should not exceed 30°C.
WARNING
Handling the battery pack The following precautions must be observed in order to safely and effectively use a battery pack. Improper use may lead to uid leakage, excessive heat, ignition, or explosion.
• Never charge it.
• Do not short-circuit it.
• Do not disassemble, transform, or modify it.
• Do not heat it or throw it into a re.
• Do not soak it in fresh water or seawater.
CAUTION
Observe the following precautions for the safe disposal of batteries.
• Do not incinerate the battery, and do not expose it to a high temperature of 100°C or more. This may lead to uid leakage or explosion.
• Dispose of the battery according to laws and regulations.
Use the following dedicated parts for the battery pack and batteries.
■ Battery Pack Part number: F9915MA
■ Batteries Part number: A1133EB Alternatively, Tadiran TL-5930/S batteries may
be purchased and used.
■ Battery Case Part number: F9915NS
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Transportation of products containing lithium batteries :
The battery pack contains lithium batteries. When transporting this transmitter with the battery pack inserted, keep it in deep sleep mode in order to conserve battery power. For details on how to switch to deep sleep mode, refer to subsection
8.3.12 “Switching to Deep Sleep Mode.” Primary
lithium batteries are regulated in transportation by the U.S. Department of Transportation, and are also covered by the International Air Transport Association (IATA), the International Civil Aviation Organization (ICAO), and the European Ground Transportation of Dangerous Goods (ARD). It is the responsibility of the shipper to ensure compliance with these or any other local requirements. Consult current regulations and requirements before shipping.
Procedure to replace and dispose of the batteries of the product
The following describes the EU Directive 006/66/EC (EU’s New Battery Directive), which applies only EU countries.
This product uses batteries. When removing the batteries from this product and disposing of them, follow the national regulations on disposal.
A battery collection system is available in EU countries. Batteries should be disposed of properly according to the system.
Battery type : Primary lithium-thionyl chloride battery
Crossed-out dustbin symbol
CAUTION
The above symbol means that the batteries with this symbol on them must be collected separately in accordance with AnnexII of EU’s New Battery Directive.
Procedure to remove the batteries safely:
Refer to subsection 9.4.5 “Replacing the Battery Pack” and subsection 9.4.6 “Replacing the Batteries.”
9.5 Troubleshooting
If any abnormality appears in the measured values, use the troubleshooting ow chart below to isolate and remedy the problem. Since some problems have complex causes, these ow charts may not identify all. If you have difculty isolating or correcting a problem, contact Yokogawa service personnel.
9.5.1 Basic Troubleshooting
First determine whether the process variable is actually abnormal or a problem exists in the measurement system.
If the problem is in the measurement system, isolate the problem and decide what corrective action to take.
This transmitter is equipped with a self-diagnostic function which will be useful in troubleshooting, and the transmitter equipped with an integral indicator will show an alarm code as a result of self­diagnosis. See subsection 9.5.3 for the list of alarms. See also each communication manual.
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Abnormalities appear in measurement.
: Areas where self-diagnostic offers support
Is process variable
itself abnormal?
Inspect the
process system.
Isolate problem in
measurement system.
Does problem exist in
receiving instrument?
Check/correct
environmental conditions.
Inspect receiver.
Check transmitter.
Check/correct operating
conditions.
Measurement system problem
F0906.ai
YES
NO
NO
YES
Environmental conditions
Operating conditions
Transmitter itself
Figure 9.6 Basic Flow and Self-Diagnostics
9.5.2 Troubleshooting Flowcharts
Check display of the error code. Check self-diagnostics by configuration tools.
Does the self-diagnostic
indicate problem location?
Contact Yokogawa service personnel.
F0907.ai
The following sorts of symptoms indicate that transmitter may not be operating properly.
Example : • There is no output signal.
• Output signal does not change even though
process variable is known to be varying.
• Output value is inconsistent with value
inferred for process variable.
Fix pressure leaks, paying particular attention to connections for impulse piping,pressure-detector section, etc.
Fully open valve.
Are valves opened or
closed correctly?
Is there any pressure leak?
YES
NO
YES
NO
NO
YES
Refer to Alarm Message Summary in Subsection 9.5.3.
Is the
Field Wireless Network
setting correct?
NO
YES
Reconnect to the Field Wireless Network.
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Connect an configuration tool and check self-diagnostics.
Does the self-
diagnostic indicate problem
location?
Contact Yokogawa service personnel.
F0908.ai
Are valves opened or
closed correctly?
Refer to Alarm Message Summary in Subsection 9.5.3.
YES
NO
Fix pressure leaks, paying particular attention to connections for impulse piping, pressure-detector section, etc.
Fully open valve.
NO
YES
YES
NO
Adjust the zero point.
NO
YES
Is there any pressure leak?
Is zero point
adjusted correctly?
Output travels beyond 0% or 100%.
Connect an configuration tool and check self-diagnostics.
Contact Yokogawa service personnel.
F0909.ai
Are valves opened or
closed correctly?
Is impulse piping
connected correctly?
Refer to Alarm Message Summary in each communication manual to take actions.
Provide lagging and/or cooling, or allow adequate ventilation.
Refer to subsection 9.2 "Calibration Instruments Selection".
Fully open valve.
Refer to individual model user manuals and connect piping as appropriate for the measurement purpose.
Adjust the output.
Is transmitter
installed where there is
marked variation in
temperature?
Is output adjusted correctly?
Large output error.
Does the self-
diagnostic indicate problem
location?
Were appropriate
instruments used for
calibration?
YES
NO
YES
NO
NO
YES
NO
YES
NO
YES
NO
YES
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9.5.3 Alarms and Countermeasures
Various diagnostics of the Al2 object and the static pressure is not supported in this instrument.
Table 9.3 Alarms Message Summary (Causes and Actions)
Integral
indicator
Factory
NAMUR
category
Bit DIAG_STATUS DIAG_STATUS_DETAIL Cause
Release/ recovery
conditions
(except restart)
Action
AL. 01 CAP. ERR
F Bit 26
Faults in sensor or actuator element
FC_SENSOR_FAIL
Pressure sensor failure
Recovers only when AUTO RECOVER is ON and within the range
Replace the capsule.
FR_SENSOR_FAIL
FC_UNOSC_FAIL Recovers only
when AUTO RECOVER is ON and oscillation does not stop
FR_UNOSC_FAIL
CAP_T_SENSOR_FAIL Capsule
temperature sensor failure
None
CAP_EEPROM_FAIL Capsule
EEPROM memory failure
Recovers when A or B returns to normal.
CAP_EEP_IRREGULAR None
AL. 02 AMP. ERR
F Bit 27
Faults in electronics
AMP_T_SENSOR_FAIL Amplier
temperature sensor failure
None
Replace the amplier.
AMP_EEPROM_FAIL
AMP_EEP_IRREGULAR
Amplier EEPROM failure
None
FC_DELTA_T_FAIL FR_DELTA_T_FAIL AMP_F1_ERROR G_A_COMM_FAIL WL_AD_FAIL Amplier failure None
AL. 10 PRESS
C Bit 23
Outside sensor limits
DP_OUTSIDE_LIMIT Pressure
outside of specied range
Recovers when input pressure returns within the range.
Check the input pressure.
AL. 11 ST. PRSS
SP_OUTSIDE_LIMIT Static pressure
outside of specied range
Recovers when static pressure returns within the range.
Check the input pressure.
AL. 12 CAP. TMP
CAPT_OUTSIDE_LMIT Capsule
temperature outside of range (-50 to 130°C)
Recovers when temperature returns within the range.
Retain heat or insulate so that temperature returns within the specied range.
AL. 13 AMP. TMP
AMPT_OUTSIDE_LIMIT Amplier
temperature outside of range (-50 to 95°C)
Recovers when temperature returns within the range.
Retain heat or insulate so that temperature returns within the specied range.
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Integral
indicator
Factory
NAMUR
category
Bit DIAG_STATUS DIAG_STATUS_DETAIL Cause
Release/ recovery
conditions
(except restart)
Action
AL.53 P. SDEV
C Bit 25
Installation, calibration problem
DP_TRIM_SPAN_OUTSIDE Pressure span
adjustment variable outside of range
Recovers when span adjustment variable/point returns within the range.
Check the span adjustment variable for the Pressure.
AL.53 P. ZDEV
DP_TRIM_ZERO_OUTSIDE Pressure zero
adjustment variable outside of range
Recovers when zero adjustment variable/point returns within the range.
Check the zero adjustment variable for the Pressure.
AL. 55 SP. SDEV
C Bit 25
Installation, calibration problem
SP_TRIM_SPAN_OUTSIDE Static pressure
span adjustment variable outside of range
Recovers when span adjustment variable /point returns within the range.
Check the static pressure span adjustment variable.
AL. 55 SP. ZDEV
SP_TRIM_ZERO_OUTSIDE Static pressure
zero adjustment variable outside of range
Recovers when zero adjustment variable/point returns within the range.
Check the static pressure zero adjustment variable.
AL. 79 OV. DISP
LCD_OUTSIDE_LIMIT LCD display
outside of specied range
Recovers when display value returns within the range.
Check the display setting.
AL. 30 RANGE
O Bit 22
Environmental conditions out of device specication
DP_OUTSIDE_RANGE Input pressure
setting outside of range
Recovers when setting returns within the range.
Check the input pressure setting.
AL. 31 SP. RNG
SP_OUTSIDE_RANGE Static pressure
setting outside of range
Recovers when setting returns within the range.
Check the static pressure setting.
AL. 70 LOW. BAT
M Bit 20
Power is critical low: maintenance need short ­term
WL_DEEPSLP_ALM Low remaining
battery power results in switching to deep sleep.
None
Replace the batteries.
AL. 70 LOW. BAT
M Bit 19
Power is low: maintenance need mid - term
WL_LOWBAT_ALM Low remaining
battery power
None
Replace the batteries.
AL. 60 AI OOS
C Bit 24 O/S
AI1_OUT_OF_SERVICE AI1 block is O/S
mode.
Returns when the mode target of AI1 block is other than O/S.
Set the mode target to AUTO.
AL. 61 AI OOS
AI2_OUT_OF_SERVICE AI2 block is O/S
mode.
Returns when the mode target of AI2 block is other than O/S.
Set the mode target to AUTO.
AL. 62 AI OOS
AI3_OUT_OF_SERVICE AI3 block is O/S
mode.
Returns when the mode target of AI3 block is other than O/S.
Set the mode target to AUTO.
Page 55
<9. Maintenance>
9-12
IM 01C27F01-01EN
Integral
indicator
Factory
NAMUR
category
Bit DIAG_STATUS DIAG_STATUS_DETAIL Cause
Release/ recovery
conditions
(except restart)
Action
AL. 63 AI SIM
C Bit 17
Simulation is active
SimulationActive (AI1)
AI1 block is simulate mode.
Returns when the simulate mode of AI1 block is set to disable. 1 (Disable)
Check the simulate mode of AI1 block.
AL. 64 AI SIM
SimulationActive (AI2)
AI2 block is simulate mode.
Returns when the simulate mode of AI2 block is set to disable. 1 (Disable)
Check the simulate mode of AI2 block.
AL. 65 AI SIM
C Bit 17
Simulation is active
SimulationActive (AI3)
AI3 block is simulate mode.
Returns when the simulate mode of AI3 block is set to disable. 1 (Disable)
Check the simulate mode of AI3 block.
“Factory NAMUR category” refers to the four categories (C: Check function, M: Maintenance required, F: Failure, and O: Off
specication) according to NAMUR NE107*.
* NAMUR NE107 “Self-Monitoring and Diagnosis of Field Devices”
Page 56
<9. Maintenance>
9-13
IM 01C27F01-01EN
Table 9.4 Alarm Message Summary (Output Actions)
Integral
Indicator
Factory NAMUR
category
Bit DIAG_STATUS DIAG_STATUS_DETAIL
Output actions
Pressure
Static
Pressure
Capsule
Temp Value
Amp Temp Value
AL. 01 CAP. ERR
F Bit 26
Faults in sensor or actuator element
FC_SENSOR_FAIL Output value
(hold value) Output status (BAD: Sensor Failure)
Output value (hold value) Output status (BAD: Sensor Failure)
Normal action
Normal action
FR_SENSOR_FAIL FC_UNOSC_FAIL FR_UNOSC_FAIL
CAP_T_SENSOR_FAIL Output value
(calculated in a normal way) Output status (UNCERTAIN: Subnormal)
Output value (calculated in a normal way) Output status (UNCERTAIN: Subnormal)
Output value (calculated in a normal way) Output status (BAD: Sensor Failure)
CAP_EEPROM_FAIL Output value
(hold value) Output status (BAD: Device Failure)
Output value (hold value) Output status (BAD: Device Failure)
Output value (calculated in a normal way) Output status (BAD: Device Failure)
Output value (calculated in a normal way) Output status (BAD: Device Failure)
CAP_EEP_IRREGULAR
AL. 02 AMP.ERR
F Bit 27
Faults in electronics
AMP_T_SENSOR_FAIL
Normal action Normal action Normal action
Output value (calculated in a normal way) Output status (BAD: Sensor Failure)
AMP_EEPROM_FAIL Output value
(hold value) Output status (BAD: Device Failure)
Output value (hold value) Output status (BAD: Device Failure)
Output value (calculated in a normal way) Output status (BAD: Device Failure)
Output value (hold value) Output status (BAD: Device Failure)
AMP_EEP_IRREGULAR
FC_DELTA_T_FAIL Output value
(hold value) output status (BAD: Device Failure)
Output value (hold value) Output status (BAD: Device Failure)
Normal action
Output value (hold value) output status (BAD: Device Failure)
FR_DELTA_T_FAIL
AMP_F1_ERROR Output value
(calculated in a normal way) Output status (BAD: Device Failure)
Output value (calculated in a normal way) Output status (BAD: Device Failure)
G_A_COMM_FAIL
WL_AD_FAIL
Page 57
<9. Maintenance>
9-14
IM 01C27F01-01EN
Integral
Indicator
Factory NAMUR
category
Bit DIAG_STATUS DIAG_STATUS_DETAIL
Output actions
Pressure
Static
Pressure
Capsule
Temp Value
Amp Temp Value
AL. 10 PRESS
C Bit 23
Outside sensor limits
DP_OUTSIDE_LIMIT Output value
(calculated in a normal way) Output status (UNCERTAIN: Sensor Conversion not Accurate)
Output value (calculated in a normal way) Output status (UNCERTAIN: Subnormal)
Normal action Normal action
AL. 11 ST. PRSS
SP_OUTSIDE_LIMIT Output value
(calculated in a normal way) Output status (UNCERTAIN: Subnormal)
Output value (calculated in a normal way) Output status (UNCERTAIN: Sensor Conversion not Accurate)
Normal action Normal action
AL. 12 CAP. TMP
CAPT_OUTSIDE_LIMIT Output value
(calculated in a normal way) Output status (UNCERTAIN: Subnormal)
Output value (calculated in a normal way) Output status (UNCERTAIN: Subnormal)
Output value (calculated in a normal way) Output status (UNCERTAIN: Sensor Conversion not Accurate)
Normal action
AL. 13 AMP. TMP
AMPT_OUTSIDE_LIMIT
Normal action Normal action Normal action
Output value (calculated in a normal way) Output status (UNCERTAIN: Sensor Conversion not Accurate)
AL. 53 P. SDEV
C Bit 25
Installation, calibration problem
DP_TRIM_SPAN_ OUTSIDE
Output value (calculated in a normal way) Output status (UNCERTAIN: Engineering Unit Range Violation)
Normal action Normal action Normal action
AL. 53 P. ZDEV
DP_TRIM_ZERO_ OUTSIDE
Normal action Normal action Normal action Normal action
AL. 55 SP. SDEN
SP_TRIM_SPAN_ OUTSIDE
Normal action Normal action Normal action Normal action
AL. 55 SP.ZDEN
SP_TRIM_ZERO_ OUTSIDE
Normal action Normal action Normal action Normal action
AL. 79 OV. DISP
LCD_OUTSIDE_LIMIT
Normal action Normal action Normal action Normal action
AL. 30 RANGE
O Bit 22
Environmental conditions out of device specication
DP_OUTSIDE_RANGE
Normal action Normal action Normal action Normal action
AL. 31 SP. RNG
SP_OUTSIDE_RANGE
Normal action Normal action Normal action Normal action
AL. 70 LOW.BAT
M Bit 20
Power is critical low: maintenance need short - term
WL_DEEPSLP_ALM
Normal action Normal action Normal action Normal action
Page 58
<9. Maintenance>
9-15
IM 01C27F01-01EN
Integral
Indicator
Factory NAMUR
category
Bit DIAG_STATUS DIAG_STATUS_DETAIL
Output actions
Pressure
Static
Pressure
Capsule
Temp Value
Amp Temp Value
AL. 70 LOW. BAT
M Bit 19
Power is low: maintenance need mid - term
WL_LOWBAT_ALM
Normal action Normal action Normal action Normal action
AL. 60 AI OOS
C Bit 24 O/S
AI1_OUT_OF_SERVICE
Normal action Normal action Normal action Normal action
AL. 61 AI OOS
AI2_OUT_OF_SERVICE
Normal action Normal action Normal action Normal action
AL. 62 AI OOS
AI3_OUT_OF_SERVICE
Normal action Normal action Normal action Normal action
AL. 63 AI SIM
C Bit 17
Simulation is active
SimulationActive (AI1)
Normal action Normal action Normal action Normal action
AL. 64 AI SIM
SimulationActive (AI2)
Normal action Normal action Normal action Normal action
AL. 65 AI SIM
SimulationActive (AI3)
Normal action Normal action Normal action Normal action
“Factory NAMUR category” refers to the four categories (C: Check function, M: Maintenance required, F: Failure, and O: Off
specication) according to NAMUR NE107*.
* NAMUR NE107 “Self-Monitoring and Diagnosis of Field Devices”
Page 59
<10. Parameter Summary>
10-1
IM 01C27F01-01EN
10. Parameter Summary
The setting of differential pressure (Al2 block) is invalid in this instrument. The output value of Al2 object and the output status are “0.0”(zero) and “Uncertain” respectively. Various diagnostics of the Al2 object and the static pressure is not supported in this instrument.
Table 10.1 Parameter
Object
ID
Attribute
ID
Label Description
Default
value
Handling
1. UAPMO block
1 VERSION_
REVISION
Indicates the application revision of EJX This revision when the application software is downloaded.
--- R
10 ST_REV Indicates the revision level of the xed parameters of
UAP Used, for example, to check whether parameters have been change.
0 R
64 IDENT_NUMBER Indicates the vender ID, model ID, and revision of the
device.
--- R
65 CTS_VERSION Indicates the version of the communication stack test
system (CTS).
0 R
66 ITS_VERSION Indicates the version of the inter operability test system
(ITS).
0 R
67 DIAG_STATUS Indicates the diagnostic results of the device based on
the NAMUR NE0107* model. Setting DIAG_STATUS to ON allows turning OFF and ON the display of the diagnostic results for each summary, and changing Categorize For Categorize at the time of shipment, refer to tables 8.3 and 10.2.
0 R
68 UAP_OPTION Allows setting the DIAG_STATUS and write protection
of UAP.
DIAG_STATUS conguration
1: Enable, 0: Disable (default)
Hardware Write Protect
1: Enable, 0: Disable (default)
Software Write Protect
1: On, 0: Off The following table shows the relationship between the hardware write protection and software write protection.
Hardware
write
protect
Hardware
switch
condition
Software
write
protect
Write
protect
Disable Off or On Off No
Disable Off or On On Protected Enable Off Off or On No Enable On Off or On Protected
0 W
69 DIAG_SWITCH Allows setting On/Off for each summary of DIAG_
STATUS when UAP_OPTION is set to Enable and DIAG_STATUS is set to Enable.
0 W
70 DIAG_CONFIG Allows Categorize for each summary of DIAG_STATUS
when UAP_OPTION is set to Enable and DIAG_ STATUS is set to Enable.
Refer to Table
10.2.
W
102 DIAG_STATUS_
DETAIL[2]
Detailed information on DIAG_STATUS. For Categorize at the time of shipment, refer to Table 10.2.
Refer to Table
10.2.
R
103 ENERGY_LEFT Indicates the number of days of remaining battery life
assuming ambient temperature condition as 23 degrees Celsius. The unit is day.
--- R
104 RESET_ENERGY_
LEFT
Initialize the remaining battery life (ENERGY_LEFT) and reset it as new batteries. Perform the battery replacement.
0 = Continue 1 = Reset
0 (reading value is always 0)
W
Page 60
<10. Parameter Summary>
10-2
IM 01C27F01-01EN
Object
ID
Attribute
ID
Label Description
Default
value
Handling
1.UAPMO block (continued)
105 POWER_
SUPPLY_STATUS
Indicates the battery level and the power supply method.
0 = external power supply 1 = battery level 75% or more 2 = battery level 25% ~ 75% 3 = battery level 25% or less
R
110 HW_WRITE_
PROTECT
Allows recognizing the status of the hardware write protection switch. (Switch Off, Switch On)
R
111 RADIO_SILENCE Repeats a cycle of a 1-hour pause and 6-minute
search if the instrument cannot join the network after a time specied in RADIO_SILENCE has elapsed.
28800 W
2. UDO block
2 DESCRIPTION Indicates the version and model information of the
downloaded data.
--- R
3 STATE Indicates the present transition state. --- R
5 MAX_BLOCK_
SIZE
Maximum block size. This value is smaller than the maximum data size of APDU.
--- R
14 LAST_BLOCK_
DOWNLOADED
Indicates the last downloaded block number. 0 means that no block has been downloaded.
--- R
16 ERROR_CODE Indicates the error codes for DLError.
0 = noError 1 = Timeout 2 = ClientAbort 64 = Apply failure
--- R
3. CO block
1 REVISION Indicates the version level of COMM_ENDPOINT, etc. --- R
2 COMM_
ENDPOINT
Indicates the Endpoint information. The following shows the components.
1. Network address of remote endpoint
2. Transport layer port at remote endpoint
3. Object ID at remote endpoint
4. Stale data limit
5. Data publication period
6. Ideal publication phase
7. PublishAutoRetransmit
8. Conguration status
--- W
3 COMM_
CONTRACT
Indicates the Contract information. The following shows the components.
1. ContractID
2. Contract_Status
3. Actual_Phase
--- R
4 PUB_ITEM_MAX Maximum PUB_ITEM value --- R
5 PUB_ITEM_NUM PUB_ITEM number --- R
6 PUB_ITEM Indicates the PUB_ITEM information. The following
shows the components
1. ObjectID
2. AttributeID
3. AttributeIndex
4. Size
--- W
Page 61
<10. Parameter Summary>
10-3
IM 01C27F01-01EN
Object
ID
Attribute
ID
Label Description
Default
value
Handling
4. TRANSDUCER block
1 TAG_DESC Memo eld available to write anything. Transducer W
2 AUTO_
RECOVERY
Allows specifying the action when the cause of a sensor failure is removed.
OFF (=0): AL continues to be indicated
even after the cause of the sensor error is removed, and the BURN OUT state is not released.
ON (=1): The AL indication for sensor
failure disappears and normal action is resumed when the cause of the sensor failure is removed.
ON W
3 MODEL Indicates the model name of the transmitter. --- R
4 SENSOR_SN Indicates the device number of the transmitter. --- R
5 MEASUREMENT
_RATE
Indicates the measurement period of process values. --- R
6 MEASURE_
MODE
Measurement mode selects continuous mode or intermittent mode. When the update time is set to 1 in intermittent mode, the mode is automatically switched to continuous mode. When the update time is set to 1 second, the computation process is in continuous mode, regardless of the measurement mode.
intermittent mode
W
7 WIRELESS_
STATUS
Indicate the communication status.
1. Indicates the initial idle status or join status. (idle status, join status)
2. Indicates whether Contract(Pub) is established. (not establishment, establishment)
3. Indicates whether Contract(R/W) is established.
(not establishment, establishment)
1. idle status
2. not estabilishment
3. not esabilishment
R
8 DISPLAY_SEL Select the LCD display contents.
1. Indicates display status of PV Value of AI1
(displayed, not displayed)
2. Indicates display status of PV Value of AI2
(displayed, not displayed)
3. Indicates display status of PV Value of AI3
(displayed, not displayed)
1. displayed
2. not displayed
3. not displayed
W
9 LCD_MODE Select the LCD mode
1. Indicates the ON mode. (off, intermittent)
2. Indicates whether continuous or not.
(continuous off, continuous on)
3. EJX does not use.
4. Indicates the bar graph display.
(bar graph not displayed, bar graph displayed)
1. OFF
2. continuous OFF
3. ---
4. bar graph not displayed
W
10 SPECIAL_CMD Special function parameter.
0 = initialize value at READ (None) 1 = EJX does not use.
2 = deep sleep status To start from deep sleep mode, either remove and insert the battery pack, or use the conguration tool.
0 W
11 SPECIAL_
ORDER_ID
Displays the special order number, if applicable. --- R
12 UNIT_SEL1 Selects whether to automatically apply the unit to the
word for the parameter for which the unit display is selected, or apply the characters that are written to DISPLAY_UNIT. (Auto, Custom)
Auto W
13 DISPLAY_UNIT1 When Custom is selected in UNIT_SEL1, set the
display unit using 6 characters or less.
NULL W
Page 62
<10. Parameter Summary>
10-4
IM 01C27F01-01EN
Object
ID
Attribute
ID
Label Description
Default
value
Handling
5. AI1 block
1 PV AL1 is a pressure output object.
Indicates the primary analog value (or corresponding process value) and status used to execute this function. Allows updating data by specifying this for the Concentrator object.
1. Value: output value of Al object
2. Status: Specify output status of Al object.
1. Value = ---
2. Status = ---
W
2 MODE A universal parameter to indicate the block’s operation
status. Each O/S, Auto, and Man can select from.
1. Target : Specify Al object mode.
2. Actual : Indicates current mode of Al object.
3. Permitted : Indicates the mode selected by Target of Al object.
4. Normal : Indicate normal status mode of Al object.
1. Target=O/S
2. Actual=O/S
3. Permitted= O/S
4. Normal=O/S
W
3 CONC_OID Indicates the Concentrator object value that
corresponds to the data update of the PV value.
3 R
4 SCALE Allows specifying the upper or lower limit for the PV
scaling, unit code, etc.
1. EU at 100% : Indicate the upper limit of the PV value.
2. EU at 0% : Indicate the lower limit of the PV value.
3. Units Index : Indicate the setting unit used for the PV value.
4. Decimal : Indicate the digit number below the decimal point displayed in the LCD indicator.
1. EU at 100% = 100
2. EU at 0% = 0
3. Units Index = %
4. Decimal = 2
W
26 TAG_DESC A universal parameter to store the comment that
describes the tag
Al1: Differential Pressure
W
27 PV_FTIME Allows adjusting the time constant for ltering the PV
value. Setting unit: Second. This is enabled for the Continuous mode.
0 sec W
28 SIMULATE_
SWITCH
A simulation function switch for the AI object test (Disable, Enable)
1 (Disable) W
29 TRANSDUCER_
VALUE
When SIMULATE_SWITCH is set to Disable, this value is used as the input value for the AI object. Refer to Figure 10.1.
Disable R
30 SIMULATE_
VALUE
When SIMULATE_SWITCH is set to Enable, this value is used as the input value for the AI object. The input value can be changed.
--- W
51 UPPER_LIM Indicates the upper limit (URL) for the pressure. --- R
52 LOWER_LIM Indicates the lower limit (LRL) for the pressure. --- R
53 PV_RANGE Sets the measurement range.
1. EU at 100% : Indicates input value of the upper limit.
2. EU at 0% : Indicates input value of the lower limit.
3. Units Index : Indicates the units of the measurement range.
4. Decimal : Indicates the digit number below the decimal point.
EU at 100% = 100 EU at 0% = 0 Units Index = kPa (1133) Decimal = 2
W
54 LIN_TYPE Select either No Linearization or Square root as a
setting of the output range.
0 = No Linearization : Provides an output value scaled according to the
PV_RANGE and SCALE range settings.
(To use Direct with FF, set the same value for
PV_RANGE and SCALE.)
10 = Square root : Provides a square root output computed for the
value scaled according to the PV_RANGE and SCALE range settings.
0 W
Page 63
<10. Parameter Summary>
10-5
IM 01C27F01-01EN
Object
ID
Attribute
ID
Label Description
Default
value
Handling
5. AI1 block (continued)
55 FLOW_
CONSTANT
Indicates the ow coefcient, which shows the correlation between the ow rate value and square root value of the differential pressure.
1.0 W
56 LOW_CUTOFF Species the low cut value. The unit is subject to
SCALE:Units Index.
10 W
57 CAL_CMD Species the calibration method.
0 = CAL_NONE : Initial state in which calibration is
not performed
1 = CAL_LOW : Applies an actual input and adjusts
the lower limit using the value specied in CAL_ POINT_LO.
2 = CAL_HIGH : Applies an actual input and adjusts
the higher limit using the value specied in CAL_ POINT_HI.
5 = CAL_CLEAR : Clears the adjustment variable.
0 (reading value is always 0)
W
58 CAL_STATUS Indicates the calibration status.
0 = CAL_NONE : Start-up and default value 1 = CAL_SUCCESS : Indicates that calibration was
successful.
7 = CAL_BAD_TRIM_POINT : Indicates this status
when the adjustment variable is outside of range.
--- R
59 CAL_POINT_HI Species the higher limit adjustment variable for
adjustment between two points.
--- W
60 CAL_POINT_LO Species the lower limit adjustment variable for the
adjustment between two points.
--- W
61 CAL_MIN_SPAN Indicates the minimum span of the adjustment
variable.
--- R
104 EXTERNAL_
ZERO_TRIM
Allows performing external zero adjustment. (Trim on, Trim off)
Trim on W
105 LOWCUT_MODE Species the low cut mode.
(Linear, Zero)
Linear W
106 H/L_SWAP Allows performing reverse connection of the impulse
line. (NORMAL, REVERSE : reverse connection) Used when the lower pressure side and higher pressure side of the impulse line were connected wrongly when installing the pressure transmitter.
Normal W
107 T_ZERO_CMP Parameter to select the temperature zero shift
compensation mode
0 = OFF : Does not perform temperature zero shift
compensation.
1 = ON : Performs temperature zero shift
compensation.
Off w
108 TEMP_ZERO Parameter to set the temperature gradient value for the
temperature zero shift compensation
0 w
109 TEMP_SELECT Parameter to select the temperature (amplier-side
/ capsule-side) used for the temperature zero shift compensation.
0 = AMP TEMP : the value of the amplier-side
temperature sensor is used.
1 = CAP TEMP : the value of the capsule-side
temperature sensor is used.
1 w
Page 64
<10. Parameter Summary>
10-6
IM 01C27F01-01EN
Object
ID
Attribute
ID
Label Description
Default
value
Handling
6. AI2 block
1 PV AI2 is a static pressure output object.
Indicates the primary analog value (or corresponding process value) and status used to execute this function. Allows updating data by specifying this for the Concentrator object.
1. Value: output value of Al object
2. Status: Specify output status of Al object.
--- W
2 MODE A universal parameter to indicate the block’s operation
status. O/S, Auto, and Man can be selected.
1. Target : Specify Al object mode.
2. Actual : Indicates current mode of Al object.
3. Permitted : Indicates the mode selected by Target of Al object.
4. Normal : Indicate normal status mode of Al object.
1.Target = O/S
2.Actual = O/S
3.Permitted = O/S
4.Normal = O/S
W
3 CONC_OID Indicates the Concentrator object value that
corresponds to the data update of the PV value.
3 R
4 SCALE Allows specifying the upper or lower limit for the PV
scaling, unit code, etc.
1. EU at 100% : Indicate the upper limit of the PV value.
2. EU at 0% : Indicate the lower limit of the PV value.
3. Units Index : Indicate the setting unit used for the PV value.
4. Decimal : Indicate the digit number below the decimal point displayed in the LCD indicator.
1. EU at 100% = 100
2. EU at 0% = 0
3. Units Index = %
4. Decimal = 2
W
26 TAG_DESC A universal parameter to store the comment that
describes the tag.
AI2: Static Pressure
W
27 PV_FTIME Allows adjusting the time constant for ltering the PV
value. Setting unit: Second. This is enabled for the Continuous mode.
0 sec W
28 SIMULATE_
SWITCH
A simulation function switch for the AI object test (Disable, Enable)
Disable W
29 TRANSDUCER_
VALUE
When SIMULATE_SWITCH is set to Disable, this value is used as the input value for the AI object.
--- R
30 SIMULATE_
VALUE
When SIMULATE_SWITCH is set to Enable, this value is used as the input value for the AI object. The input value can be changed.
--- W
51 UPPER_LIM Indicates the upper limit (URL) for the pressure. --- R
52 LOWER_LIM Indicates the lower limit (LRL) for the pressure. --- R
53 PV_RANGE Sets the measurement range.
1. EU at 100% : Indicates input value of the upper limit.
2. EU at 0% : Indicates input value of the lower limit.
3. Units Index : Indicates the units of the measurement range.
4. Decimal : Indicates the digit number below the decimal point.
1. EU at 100% =
25000.000000 EU at 0% = 0 Units Index = kPa Decimal = 2
W
Page 65
<10. Parameter Summary>
10-7
IM 01C27F01-01EN
Object
ID
Attribute
ID
Label Description
Default
value
Handling
6. AI2 block (continued)
54 LIN_TYPE Select either No Linearization or Square root as a
setting of the output range.
0 = No Linearization : Provides an output value scaled according to the
PV_RANGE and SCALE range settings.
(To use Direct with FF, set the same value for
PV_RANGE and SCALE.)
10 = Square root : Provides a square root output computed for the
value scaled according to the PV_RANGE and SCALE range settings.
0 W
55 FLOW_
CONSTANT
Indicates the ow coefcient, which shows the correlation between the ow rate value and square root value of the pressure.
1.0 W
56 LOW_CUTOFF Species the low cut value. The unit is subject to
SCALE : Units index.
10 W
57 CAL_CMD Species the calibration method.
0 = CAL_NONE : Initial state in which calibration is
not performed
1 = CAL_LOW : Applies an actual input and adjusts
the lower limit using the value specied in CAL_ POINT_LO.
2 = CAL_HIGH : Applies an actual input and adjusts
the higher limit using the value specied in CAL_ POINT_HI.
5 = CAL_CLEAR : Clears the adjustment variable.
0 (reading value is always 0)
W
58 CAL_STATUS Indicates the calibration status.
0 = CAL_NONE : Start-up and default value 1 = CAL_SUCCESS : Indicates that calibration was
successful.
7 = CAL_BAD_TRIM_POINT : Indicates this status
when the adjustment variable is outside of range.
R
59 CAL_POINT_HI Species the higher limit adjustment variable for
adjustment between two points.
--- W
60 CAL_POINT_LO Species the lower limit adjustment variable for the
adjustment between two points.
--- W
61 CAL_MIN_SPAN Indicates the minimum span of the adjustment
variable.
--- R
102 SP_VALUE_TYPE Selects the gauge pressure or the absolute pressure. Abs W
103 SP_SELECT Parameter to select the High-side pressure or the Low-
side pressure as the static pressure output.
0 = High : Displays the H-side pressure as the static
pressure
1 = Low : Displays the L-side pressure as the static
pressure
High W
Page 66
<10. Parameter Summary>
10-8
IM 01C27F01-01EN
Object
ID
Attribute
ID
Label Description
Default
value
Handling
7. AI3 block
1 PV Al3 is a temperature pressure output object.
Indicates the primary analog value (or corresponding process value) and status used to execute this function. Allows updating data by specifying this for the Concentrator object.
1. Value: output value of Al object
2. Status: Specify output status of Al object.
1. Value = ---
2. Status = ---
W
2 MODE A universal parameter to indicate the block’s operation
status. O/S, Auto, and Man can be selected.
1. Target : Specify Al object mode.
2. Actual : Indicates current mode of Al object.
3. Permitted : Indicates the mode selected by Target of Al object.
4. Normal : Indicate normal status mode of Al object.
1. Target = O/S
2. Actual = O/S
3. Permitted = O/S
4. Normal = O/S
W
3 CONC_OID Indicates the Concentrator object value that
corresponds to the data update of the PV value.
3 R
4 SCALE Allows specifying the upper or lower limit for the PV
scaling, unit code, etc.
1. EU at 100% : Indicate the upper limit of the PV value.
2. EU at 0% : Indicate the lower limit of the PV value.
3. Units Index : Indicate the setting unit used for the PV value.
4. Decimal : Indicate the digit number below the decimal point displayed in the LCD indicator.
1. EU at 100% = 100
2. EU at 0% = 0
3. Units Index = %
4. Decimal = 2
W
26 TAG_DESC A universal parameter to store the comment that
describes the tag
AI3: Capsule temperature
W
27 PV_FTIME Allows adjusting the time constant for ltering the PV
value. Setting unit: Second. This is enabled for the Continuous mode.
0 sec W
28 SIMULATE_
SWITCH
A simulation function switch for the AI object test (Disable, Enable)
Disable W
29 TRANSDUCER_
VALUE
When SIMULATE_SWITCH is set to Disable, this value is used as the input value for the AI object.
--- R
30 SIMULATE_
VALUE
When SIMULATE_SWITCH is set to Enable, this value is used as the input value for the AI object. The input value can be changed.
--- W
53 SENSOR_RANGE Parameter to nondimensionalize the sensor output
value. The temperature unit can selects from K, degC, and degF.
1. EU at 100% : Indicates input value of the upper limit.
2. EU at 0% : Indicates input value of the lower limit.
3. Units Index : Indicates the units of the measurement range.
4. Decimal : Indicates the digit number below the decimal point.
1. EU at 100% = 130
2. EU at 0% = -50
3. Units Index = deg C
4. Decimal = 0
W
102 TERTIARY_
VALUE_SEL
Species either the capsule temperature or amplier temperature as the output value. (CAP, AMP)
CAP W
(Note) Handling: R=Read only, W=Read & Write (Note) “Factory NAMUR category” refers to the four categories (C: Check function, M: Maintenance required, F: Failure, and O: Off
specication) according to NAMUR NE107*.
* NAMUR NE107 “Self-Monitoring and Diagnosis of Field Devices”
Page 67
<10. Parameter Summary>
10-9
IM 01C27F01-01EN
Table 10.2 DIAG_STATUS_DETAIL[0]
No Bit DIAG_STATUS_DETAIL Description DIAG_STATUS
assignment bit
NAMUR
DiagnosticDetail_1 1 31 FC_SENSOR_FAIL C sensor frequency error Bit26 F 2 30 FR_SENSOR_FAIL R sensor frequency error Bit26 F 3 29 CAP_T_SENSOR_FAIL Capsule temperature sensor failure Bit26 F 4 28 CAP_EEPROM_FAIL Capsule EEPROM failure Bit26 F 5 27 CAP_EEP_IRREGULAR CAP EEPROM version not correct Bit26 F 6 26 AMP_T_SENSOR_FAIL Amplier temperature sensor failure Bit27 F 7 25 AMP_EEPROM_FAIL Amplier EEPROM failure Bit27 F 8 24 AMP_EEP_IRREGULAR AMP EEPROM version not correct Bit27 F 9 23 AMP_F1_ERROR F1 error Bit27 F 10 22 G_A_COMM_FAIL G/A failure Bit27 F 11 21 FC_UNOSC_FAIL C sensor oscillation stop failure Bit26 F 12 20 FC_DELTA_T_FAIL C-side deltaT circuit failure Bit27 F 13 19 FR_DELTA_T_FAIL R-side deltaT circuit failure Bit27 F 14 18 WL_AD_FAIL Battery voltage not detected (AMP failure) Bit27 F 15 17 FR_UNOSC_FAIL R sensor oscillation stop failure Bit26 F 17 15 DP_OUTSIDE_LIMIT Pressure outside of specied range Bit23 C 18 14 SP_OUTSIDE_LIMIT Static pressure outside of specied range Bit23 C 19 13 CAPT_OUTSIDE_LIMIT Capsule temperature outside of specied
range
Bit23 C
20 12 AMPT_OUTSIDE_LIMIT Amplier temperature outside of specied
range
Bit23 C
22 7 DP_OUTSIDE_RANGE Input pressure setting outside of range Bit22 O 23 6 SP_OUTSIDE_RANGE Static pressure setting outside of range Bit22 O DiagnosticDetail_2 24 31 AI1_OUT_OF_SERVICE AI1 O/S mode Bit24 C 25 30 AI2_OUT_OF_SERVICE AI2 O/S mode Bit24 C 26 29 AI3_OUT_OF_SERVICE AI3 O/S mode Bit24 C 27 28 AI1_SIMULATION_ACTIVE AI1 simulation mode Bit17 C 28 27 AI2_SIMULATION_ACTIVE AI2 simulation mode Bit17 C 29 26 AI3_SIMULATION_ACTIVE AI3 simulation mode Bit17 C 33 20 DP_TRIM_SPAN_OUTSIDE Pressure span adjustment variable outside of
range
Bit25 C
34 19 DP_TRIM_ZERO_OUTSIDE Pressure zero adjustment variable outside of
range
Bit25 C
38 15 SP_TRIM_SPAN_OUTSIDE Static pressure span adjustment variable
outside of range
Bit25 C
39 14 SP_TRIM_ZERO_OUTSIDE Static pressure zero adjustment variable
outside of range
Bit25 C
40 13 WL_LOWBAT_ALM Low battery Bit19 M 41 10 WL_DEEPSLP_ALM Deep sleep due to low battery Bit20 M 42 8 LCD_OUTSIDE_LIMIT LCD display outside of specied range Bit25 C
F1001.ai
AI algoritm
MODE Target
from operator
from operator
from operator
from transducer
SIMULATE
On
Off
AI
algorithm
Linearization
scaling,
filter
Alert
report
HiHi etc
PV
Auto
O/S
Man
Publish
Value
& Status
PV
PV
Value
& Status
Value
& Status
Value
& Status
Mode and
PV.Status handling
SWITCH
SIMULATE
_VALUE
Figure 10.1 Example schema of analog input object
Page 68
<11. General Specications>
11-1
IM 01C27F01-01EN
11. General Specications
11.1 Standard Specications
Communication protocol:
ISA100.11a protocol
Data rate:
250 kbps
Frequency:
2400 - 2483.5 MHz license free ISM band
Radio security:
AES 128 bit codied
RF Transmitter power:
Max. 11.6 dBm (xed)
Antenna:
+2 dBi Omni directional monopole type
Span and range limits:
(For EJX510B, values are in absolute and lower range limits are 0.)
T01E.ai
Span
Span
Range
Range
Range
Range
Span
–1 to 20
1 to 50
–1 to 100
2 to 100
0.4 to 20
145 to 7200 10 to 500
8 to 200 kPa
–0.1 to 10
–0.1 to 2
0.04 to 2
–100 to 200 kPa
–14.5 to 1450
0.2 to 10
1.16 to 29
–14.5 to 29
5.8 to 290
–14.5 to 290
29 to 1450
Span
–1 to 2
10 to 500
–1 to 500–14.5 to 7200–0.1 to 50 –1 to 500
2 to 100
–1 to 2
0.08 to 2
0.4 to 20
–1 to 20
–1 to 100
A
D
0.08 to 2
C
B
kgf/cm2 (/D4)MPa
Measurement
Span/Range
psi (/D1) bar (/D3)
Performance specications:
Refer to GS 01C27F01-01EN.
Output:
Wireless (ISA100.11a protocol) 2.4GHz signal
Update Time:
Measurement mode Pressure
Continuous 100 msec Intermittent 1 to 3600 sec selectable
If the update time is set at one second, the transmitter
shifts to the continuous mode.
Zero Adjustment Limits:
Zero can be fully elevated or suppressed, within the lower and upper range limits of the capsule.
External Zero Adjustment:
External zero is continuously adjustable with
0.01% incremental resolution of span. Re-range can be done locally using the digital indicator with range-setting switch.
Integral Indicator (LCD display):
5-digit numerical display, 6-digit unit display and bar graph. The indicator is congurable to display one or up to two of the following variables periodically.; Pressure and temperature.
Burst Pressure:
A, B and C capsule: 30MPa D capsule: 132MPa
Self Diagnostics:
Capsule failure, amplier failure, conguration error, battery alarm, wireless communication alarm, and over-range error for process variables.
Ambient Temperature Limits:
-40 to 85ºC(-40 to 185°F)
-30 to 80ºC(-22 to 176°F) LCD visible range
Process Temperature Limits:
-40 to 120ºC(-40 to 248°F)
Ambient Humidity Limits:
0 to 100% RH
Page 69
<11. General Specications>
11-2
IM 01C27F01-01EN
Working Pressure Limits (Silicone oil):
Maximum Pressure Limits
Pressure
Capsule EJX510B EJX530B
A 200 kPa abs
(29 psia)
200 kPa (29 psig)
Bi 2 MPa abs (290 psia) 2 MPa (290 psig) C 10 MPa abs
(1450 psia)
10 MPa (1450 psig)
D 50 MPa abs
(7200 psia)
50 MPa (7200 psig)
Minimum Pressure Limit
See graph below
-40 (-40)
0 (32)40(104)80(176)
120 (248)
0.1(0.75)
0.13(1)
1(7.5)
100(750)
10(75)
2.7(20)
0.01(0.075)
0.013(0.1)
85 (185)
(mmHg abs)
Working pressure kPa abs
Applicable range
Process temperature °C ( °F)
F01E.ai
Atmospheric
pressure
-40 (-40)
0 (32)40(104)80(176)
120 (248)
1(0.14)
2.7(0.38)
10(1.4)
(psia)
100(14.5)
Process temperature °C ( °F)
Working pressure kPa abs
Applicable range
F02E.ai
Maximum Over Pressure
Pressure
Capsule EJX510B EJX530B
A and B 4 MPa abs (580 psia) 4 MPa (580 psig) C 20 MPa abs
(2900 psia)
20 MPa (2900 psig)
D 75 MPa abs
(10800 psia)
75 MPa (10800 psig)
Connections:
Refer to “MODEL AND SUFFIX CODES.”
Wetted Parts Materials:
Diaphragm, Process Connector
Refer to “MODEL AND SUFFIX CODES.”
Non-wetted Parts Materials:
Housing
Low copper cast aluminum alloy with polyurethane, mint-green paint (Munsell
5.6BG 3.3/2.9 or its equivalent)
Degrees of Protection
IP66/IP67, NEMA4X
Pipe
Polypropylene
Cover O-rings
Buna-N
Name plate and tag
304 SST tag plate wired onto transmitter
Fill Fluid
Silicone, uorinated oil (optional)
Weight:
Capsule A, B and C: 3.2kg (7.1 lb) * Capsule D: 3.4kg (7.4 lb) *
*: Without battery pack and mounting bracket.
Page 70
<11. General Specications>
11-3
IM 01C27F01-01EN
11.2 Model and Sufx Codes
T03E.ai
Model DescriptionSuffix Codes
304 SST 2-inch pipe mounting None
Absolute pressure transmitter Gauge pressure transmitter
Wireless communication (ISA100.11a protocol) 8 to 200 kPa (1.16 to 29 psi)
0.04 to 2 MPa (5.8 to 290 psi)
0.2 to 10 MPa (29 to 1450 psi) 1 to 50 MPa (145 to 7200 psi)
/ Optional specification
Always 0 Cast aluminum alloy No electrical connection
Process connection Diaphragm 316L SST# Hastelloy C-276
*1#
Hastelloy C-276
*1#
Hastelloy C-276
*1#
1/2 NPT female 1/2 NPT male G1/2 DIN 16 288 male
*2
M20×1.5 DIN 16 288 male
*2
Digital indicator
Measurement span (Capsule)
Wetted parts material
*
3
EJX510B EJX530B
Process connections
Mounting bracket
Electrical connection
Optional code
Integral indicator
Output signal
Amplifier housing
Always N
· · · · · · · · · · · · · · · · · · · · · · · ·
· · · · · · · · · · · · · · · · · · · · · · · ·
-L · · · · · · · · · · · · · · · · · · · · · ·
A · · · · · · · · · · · · · · · · · · · · · B · · · · · · · · · · · · · · · · · · · · · C · · · · · · · · · · · · · · · · · · · · · D · · · · · · · · · · · · · · · · · · · · ·
4 · · · · · · · · · · · · · · · · · 7 · · · · · · · · · · · · · · · · · 8 · · · · · · · · · · · · · · · · · 9 · · · · · · · · · · · · · · · · ·
N · · · · · · · · · · · · · · ·
-0 · · · · · · · · · · · · ·
D · · · · · · ·
F · · · · · · N · · · · · ·
7 · · · · · · · · · · · ·
J · · · · · · · · ·
S · · · · · · · · · · · · · · · · · · H · · · · · · · · · · · · · · · · · ·
The “►” marks indicates the most typical selection for each specication. Example: EJX530B-LAS4N-07JNN/o. *1: Hastelloy C-276 or ASTM N10276. *2: Not applicable for combination of capsule code D and wetted parts material code H. *3: Users must consider the characteristics of selected wetted parts material and the inuence of process uids. The use of
inappropriate materials can result in the leakage of corrosive process uids and cause injury to personnel and/or damage to plant facilities. It is also possible that the diaphragm itself can be damaged and that material from the broken diaphragm and the ll uid can contaminate the user’s process uids.
Be very careful with highly corrosive process uids such as hydrochloric acid, sulfuric acid, hydrogen sulde, sodium hypochlorite,
and high-temperature steam (150°C [302°F] or above). Contact Yokogawa for detailed information of the wetted parts material.
The ‘#’ marks indicate the construction materials conform to NACE material recommendations per MR01-75. For the use of 316 SST material, there may be certain limitations for pressure and temperature. Please refer to NACE standards for details.
11.3 OPTIONAL SPECIFICATIONS
OPTIONAL SPECIFICATIONS (For Explosion Protected type)
Approvals under pending
Item Description Code
Factory Mutual (FM)
FM Intrinsically safe Approval Intrinsically Safe for Class I, Division 1, Groups A, B, C & D, Class II, Division 1, Groups E, F & G and Class III, Division 1, Class I, Zone 0, in Hazardous Locations, AEx ia IIC Nonincendive for Class I, Division 2, Groups A, B, C & D, Class II, Division. 2, Groups F & G, and Class III, Division 1, Class I, Zone 2, Group IIC, in Hazardous Locations
FS17
CENELEC ATEX CENELEC ATEX (KEMA) Intrinsically safe Approval
Canadian Standards Association (CSA)
CSA Intrinsically safe Approval
[For CSA C22.2]
Intrinsically Safe for Class I, Division 1, Groups A, B, C & D, Class II, Division 1, Groups E, F & G, Class III, Division 1, Nonincendive for Class I, Division 2, Groups A, B, C & D, Class II, Division 2, Groups F & G, Class III, Division 1
[For CSA E60079]
Ex ia II C T4
CS17
IECEx Scheme IECEx Intrinsically safe Approval
Page 71
<11. General Specications>
11-4
IM 01C27F01-01EN
OPTIONAL SPECIFICATIONS
(See Table for Span and
Range Limits.)
Nitrogen(N
2
) Gas or Water
*8
Retention time: one minute
T04E.ai
Degrease cleansing treatment
Degrease cleansing treatment with fluorinated oilfilled capsule. Operating temperature –20 to 80°C (–4 to 176°F)
Fluorinated oil filled in capsule
Operating temperature –20 to 80°C (–4 to 176°F)
P calibration (psi unit)
bar calibration (bar unit)
M calibration (kgf/cm
2
unit)
Process Connector
Test Pressure: 200 kPa (29 psi)
*4
Test Pressure: 2 MPa (290 psi)
*5
Test Pressure: 10 MPa (1450 psi)
*6
Test Pressure: 50 MPa (7200 psi)
*7
Description Code
K1
K2
K3
D1
D3
D4
M15
T05
T06
T07
T08
Item
Oil-prohibited use
*10
Capsule fill fluid
Calibration units
*2
Material certificate
*3
PED 97/23/EC Category III, Module H, Type of Equipment: Pressure Accessory-Vessel, Type of Fluid: Liquid and Gas, Group of Fluid: 1 and 2
PE3
European Pressure Equipment Directive
*11
Pressure test /Leak test certificate
*9
Inside of isolating diaphragms (fill fluid side) are gold plated, effective for hydrogen permeation.
A1
Gold-plated diaphragm
*
10
Painting
Color change
Coating change
Amplifier cover only
Anti-corrosion coating *
1
P
X2
*1: Not applicable with color change option. *2: The unit of MWP (Max. working pressure) on the name plate of a housing is the same unit as specied by option codes D1,
D3, and D4. *3: Material traceability certication, per EN 10204 3.1 B. *4: Applicable for capsule code A. *5: Applicable for capsule code B. *6: Applicable for capsule code C. *7: Applicable for capsule code D. *8: Pure nitrogen gas or pure water is used for oil-prohibited use (option codes K1 and K2). *9: The unit on the certicate is always kPa/MPa regardless of selection of option code D1, D3 and D4. *10: Applicable for wetted parts material code S. *11: Applicable for measurement span code D. If compliance with category III is needed, specify this option code.
Page 72
<11. General Specications>
11-5
IM 01C27F01-01EN
11.4 Dimensions
Unit: mm (approx. inch)
72
(2.83)
282 (11.10)
162 (6.38)
202 (7.95)
322 (12.68)
140 (5.51)
82
*4
(3.23)
12
*3
(0.47)
94
*2
(3.70)
64
(2.52)
191 (7.52)
199 (7.83)
39
(1.54)
24
(0.94)
Ø110 (4.33)
Open to atmosphere
*1
Mounting bracket (Optional)
Integral indicator
2-inch pipe
(O. D. 60 mm)
Process connections code 7
Process connections code 4
Process connections code 8 and 9
193
(7.60)
*1: Applicable for EJX530B Measurement span code A, B, and C. *2: 92 mm (3.62 inch) for Measurement span code D. *3: 11 mm (0.43 inch) for Measurement span code D. *4: 80 mm (3.15 inch) for Measurement span code D.
Zero adjustment
Ground terminal
209
(8.23)
) 97. 0( 0 2 ) 0 2 . 0 ( 5
ø6 (0.24)
F03E.ai
Infrared Configuration
F04E.ai
Infrared port
Page 73
i
IM 01C27F01-01EN
Revision Information
Title : EJX510B and EJX530B
Absolute and Gauge Pressure Transmitters
Manual No. : IM 01C27F01-01EN
Edition Date Page Revised Item
2nd Aug. 2010 Release of ISA100.11a protocol
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