Kamstrup MULTICAL 801 Technical Description

Kamstrup A/S · Industrivej 28, Stilling · DK-8660 Skanderborg · T: +45 89 93 10 00 · info@kamstrup.com · kamstrup.com

Technical Description

MULTICAL® 801

2

Kamstrup A/S · Technical Description · 5512-571_R1_GB_11_2016

MULTICAL® 801

Kamstrup A/S · Technical Description · 5512-571_R1_GB _11.2016

3

Contents

1 General Description ........................................................................................................ 6

1.1 Block diagram ...................................................................................................................................... 6

2 Technical data ................................................................................................................ 7

2.1 Approved meter data ............................................................................................................................ 7

2.2 Electrical data ....................................................................................................................................... 8

2.3 Mechanical data ................................................................................................................................. 10

2.4 Material .............................................................................................................................................. 10

2.5 Accuracy ............................................................................................................................................. 11

3 Type overview ............................................................................................................... 12

3.1 Type and programming overview ......................................................................................................... 12

3.2 Type number composition................................................................................................................... 13

3.3 PROG, A-B-CCC-CCC ............................................................................................................................ 14

3.4 Display coding .................................................................................................................................... 24

3.5 >EE< Configuration of MULTI-TARIFF ...................................................................................................... 26

3.6 >FF< Input A (VA), pulse division >GG< Input B (VB), pulse division ........................................................ 27

3.7 >MN< Configuration of leak limits ......................................................................................................... 28

3.8 Data for configuration ......................................................................................................................... 29

4 Dimensioned sketches .................................................................................................. 30

5 Installation ................................................................................................................... 31

5.1 Mounting in inlet or outlet pipe ........................................................................................................... 31

5.2 EMC conditions................................................................................................................................... 32

5.3 Climatic conditions ............................................................................................................................. 32

5.4 Electrical installations ........................................................................................................................ 32

5.5 Terminal Overview .............................................................................................................................. 32

6 Calculator functions ...................................................................................................... 33

6.1 Energy calculation .............................................................................................................................. 33

6.2 Application types ................................................................................................................................ 34

6.3 Calculator with two flow sensors ......................................................................................................... 39

6.4 Combined heat/cooling metering ........................................................................................................ 40

6.5 Flow measurement V1 and V2 ............................................................................................................. 41

6.6 Power measurement, V1 ..................................................................................................................... 42

6.7 Min. and max. flow and power, V1 ...................................................................................................... 43

6.8 Temperature measurement ................................................................................................................. 44

6.9 Display functions ................................................................................................................................ 46

6.10 Info codes .......................................................................................................................................... 51

6.11 Tariff functions ................................................................................................................................... 54

6.12 Data loggers ....................................................................................................................................... 58

6.13 Leak surveillance ................................................................................................................................ 60

MULTICAL® 801

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Kamstrup A/S · Technical Description · 5512-571_R1_GB_11_2016

6.14 Reset functions .................................................................................................................................. 63

6.15 SMS commands ................................................................................................................................. 64

7 Flow meter connection.................................................................................................. 66

7.1 Volume inputs V1 and V2 ................................................................................................................... 66

7.2 Flow meter with active 24 V pulse output  ....................................................................................... 67

7.3 Pulse inputs VA and VB ...................................................................................................................... 73

8 Temperature sensors .................................................................................................... 75

8.1 Sensor types ...................................................................................................................................... 76

8.2 Cable influence and compensation .................................................................................................... 77

8.3 Pocket sensors .................................................................................................................................. 79

8.4 Pt500 short direct sensor pair ............................................................................................................ 80

9 Other connections ........................................................................................................ 81

9.1 Pulse outputs CE and CV [16-19] ........................................................................................................ 81

9.2 Analog outputs [80-87] ...................................................................................................................... 81

9.3 Data connection [62-64] ..................................................................................................................... 82

9.4 Valve control [16B-18B] ..................................................................................................................... 82

9.5 Auxiliary supply [97A-98A] ................................................................................................................. 83

10 Power supply ............................................................................................................ 84

10.1 Built in battery backup ....................................................................................................................... 84

10.2 230 VAC supply ................................................................................................................................. 85

10.3 24 VAC supply ................................................................................................................................... 85

For MULTICAL® 801 with both analog outputs and high-power communication we recommend a stronger

transformer, e.g. type 5920-161..................................................................................................................... 86

10.4 Danish regulations for the connection of mains operated meters ........................................................ 87

11 Plug-in modules ........................................................................................................ 88

11.1 Plug-in modules ................................................................................................................................. 88

11.2 Retrofitting modules .......................................................................................................................... 97

12 Data communication ................................................................................................. 99

12.1 MULTICAL 801 Data Protocol ............................................................................................................ 99

12.2 MULTICAL 66-CDE compatible data ................................................................................................. 101

13 Calibration and verification ..................................................................................... 102

13.1 High-resolution energy reading ........................................................................................................ 102

13.2 Pulse interface ................................................................................................................................. 103

13.3 True energy calculation .................................................................................................................... 104

14 METERTOOL HCW .................................................................................................... 105

14.1 Introduction ..................................................................................................................................... 105

14.2 How to use METERTOOL HCW for MULTICAL® 801 .............................................................................. 106

14.3 Verification using METERTOOL HCW .................................................................................................. 112

14.4 LogView HCW ................................................................................................................................... 115

MULTICAL® 801

Kamstrup A/S · Technical Description · 5512-571_R1_GB _11.2016

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15 Approvals ................................................................................................................ 117

15.1 Type approvals ................................................................................................................................. 117

15.2 The Measuring Instrument Directive .................................................................................................. 117

16 Troubleshooting ...................................................................................................... 118

17 Environmental declaration ....................................................................................... 119

17.1 Disposal ........................................................................................................................................... 119

17.2 Transport restrictions ........................................................................................................................ 119

18 Documents .............................................................................................................. 120

MULTICAL® 801

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Kamstrup A/S · Technical Description · 5512-571_R1_GB_11_2016

1 General Description

MULTICAL® 801 is an energy meter with many applications. In addition to being an accurate and reliable mains supplied heat meter, MULTICAL

®

801 can also be used for:

• Energy metering independent of supply voltage interruptions

• Cooling metering in water-based systems

• Bifunctional heat/cooling metering in separate registers

• Leak surveillance of heat and cold water installations

• Power and flow limiter with valve control

• Data logger

• Data communication

• Analog 0/4…20 mA outputs

In designing MULTICAL

®

801, we have attached great importance to flexibility through programmable functions and plug-in modules in order to secure optimum use in a wide range of applications. In addition, the construction makes it possible to update previously installed MULTICAL

®

801 via the PC-program METERTOOL.

This technical description has been written with a view to enabling operations managers, meter installers, consulting engineers and distributors to utilize all functions comprised in MULTICAL

®

801. Furthermore, the

description is directed to laboratories performing tests and verification.

MULTICAL

®

801 is based on the platform used for MULTICAL® 601. However, many extra facilities such as back illuminated display, back up of energy metering during power failure, extra communication channels and the option of four analog outputs have been added.

1.1 Block diagram

MULTICAL® 801

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2 Technical data

2.1 Approved meter data

Approval DK-0200-MI004-009

Standard EN 1434:2007 and OIML R75:2002

EU-directives Measuring Instrument Directive, Low Voltage Directive, Electromagnetic Compatibity Directive

Temperature range θ: 2 °C…180 °C Differential range ∆Θ: 3 K…170 K

Accuracy E

C

± (0.5 + ∆Θ

min

/∆Θ) %

Temperature sensors -Type 67-F and 67-K Pt100 – EN 60 751, 4-wire connection

-Type 67-G and 67-L Pt500 – EN 60 751, 4-wire connection

Compatible flow meter types -ULTRAFLOW



-Electronic meters with active or passive pulse output

-Mechanical meters with electronic pick-up

-Mechanical meters with reed contact

Flow meter sizes [kWh] qp 0.6 m

3

/h…15 m3/h

[MWh] qp 0.6 m

3

/h…15000 m3/h

[GJ] qp 0.6 m

3

/h…30000 m3/h

EN 1434 designation Environmental class A and C

MID designation Mechanical environment: Class M1

Electromagnetic environment: Class E1 and E2

Non-condensing environment, closed location 5…55 °C (indoors)

MULTICAL® 801

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Kamstrup A/S · Technical Description · 5512-571_R1_GB_11_2016

2.2 Electrical data

Calculator data

Typical accuracy

Calculator EC ± (0.15 + 2/∆Θ) %

Sensor pair: ET ± (0.4 + 4/∆Θ) %

Display

LCD – 7 (8) digits with digit heigth 7.6 mm and back illumination

Resolution

9999.999 – 99999.99 – 999999.9 – 9999999 - 99999999

Energy units

MWh – kWh – GJ – Gcal

Data logger (Eeprom)

Standard: 460 days, 36 months, 15 years, 50 info codes

Standard: Programmable data logger with logging depth 1080 registers

Clock/calendar

Standard: Clock, calendar, leapyear compensation, target date

Standard: Real time clock with battery backup

Standard: Battery backup of energy measurement incl. ULTRAFLOW



Data communication

Standard: KMP protocol with CRC16 used for optical communication

as well as base modules

Power of temperature sensors

<

10 µW RMS

Mains supply

230 VAC +15/-30 %, 50/60 Hz (all types)

24 VAC ±50 %, 50/60 Hz (Type 67-F/G without analog outputs) 24 VAC ±25 %, 50/60 Hz (Type 67-F/G with analog outputs)

Insulation voltage

4 kV

Power consumption

Current consumption

<

3 W without analog outputs

< 9 W with analog outputs Max. 50 mA/230 VAC Max. 450 mA/24 VAC

Battery backup

3.65 VDC, 2 batteries A-cell lithium

(Type No. 66-99-619)

Replacement interval

Backup period

10 years’ normal operation (with mains supply)

1 year (without supply) The replacement interval is reduced at high ambient temperature

EMC data

Fulfils EN 1434 class A and C (MID class E1 and E2)

MULTICAL® 801

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Temperature measurement

T1

T2

T3

T4

-Type 67-F and 67-K 4-W Pt100

Measuring range

0.00…185.00 °C 0.00…185.00 °C 0.00…185.00 °C

N/A

Preset range

0.01…180.00 °C 0.01…180.00°C 0.01…180.00 °C 0.01…180.00 °C

-Type 67-G and 67-L 4-W Pt100

Measuring range

0.00…185.00 °C 0.00…185.00 °C 0.00…185.00 °C

N/A

Preset range

0.01…180.00 °C

Max. Cable lengths

(Max Ø6mm cable)

Pt100, 2-wire

Pt500, 2-wire

Pt500, 4-wire

2 x 0.25 mm2: 2.5 m

2 x 0.50 mm2: 5 m 2 x 1,00 mm

2

: 10 m

2 x 0.25 mm2: 10 m

2 x 0.50 mm2: 20 m

4 x 0.25 mm2: 100 m

-

MULTICAL® 801

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Kamstrup A/S · Technical Description · 5512-571_R1_GB_11_2016

Flow measurement V1 and V2

ULTRAFLOW



V1: 9-10-11 and V2: 9-69-11

Reed contacts

V1: 10-11 and V2: 69-11

24 V active pulses

V1: 10B-11B and V2: 69B-79B

EN 1434 pulse class

IC

IB

(IA)

Pulse input

220 kΩ pull-up to 3.6 V 220 kΩ pull-up to 3.6 V

12 mA at 24 V

Pulse ON

<

0.4 V i > 0.5 ms

<

0.4 V i > 50 ms

<

4 V i > 3 ms

Pulse OFF

> 2.5 V i > 10 ms

> 2.5 V i > 50 ms

> 12 V i > 10 ms

Pulse frequency

<

128 Hz

<

1 Hz

<

128 Hz

Integration frequency

<

1 Hz

<

1 Hz

<

1 Hz

Electrical isolation

No

2 kV

Max. cable length

10 m

25 m

100 m

Pulse inputs VA and VB

VA 65-66 and VB: 67-68

Water meter connection

FF(VA) and GG(VB) = 01…40

Electricity meter connection

FF(VA) and GG(VB) = 50…60

Pulse input

680 kΩ pull-up to 3.6 V

Pulse ON

<

0.4 V i > 30 ms

<

0.4 V i > 30 ms

Pulse OFF

>

2.5 V i > 30 ms

>

2.5 V i > 30 ms

Pulse frequency

<

1 Hz

<

3 Hz

Electrical isolation

No

Max. cable length

25 m

Requirements to ext. contact

Leak current at function open < 1 µA

Pulse outputs CE and CV

Energy (16-17) Volume (18-19)

Type

Open collector (OB)

Pulse duration

Programmable 32, 100 or 247 ms via METERTOOL

External voltage

5…30 VDC

Current

1…10 mA

Residual stress

UCE ≈ 1 V at 10 mA

Electrical isolation

2 kV

Max. cable length

25 m

2.3 Mechanical data

Environmental class

Fulfils EN 1434 class A and C

Ambient temperature

5…55 °C non-condensing, closed location (installation indoors)

Protection class

IP67

Storage temperature

-20…60 °C (drained flow meter)

Weight

1.4 kgs excl. sensors and flow meter

Cable adapters

6 pcs. D 3…6 mm and 3 pcs. D 4…8 mm

2.4 Material

Top cover

PC

Connection base

PC + 10 %GF

Sealing cover, top

ABS

Sealing cover, bottom

PC

Prism behind display

PMMA

MULTICAL® 801

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2.5 Accuracy

Figure 1

MULTICAL

®

801 typical accuracy compared to EN 1434.

MULTICAL® 801

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Kamstrup A/S · Technical Description · 5512-571_R1_GB_11_2016

3 Type overview

MULTICAL® 801 can be ordered in countless combinations as required by the customer. First, you select the required hardware from the type overview. Then select ”Prog”, ”Config” and ”Data” to suit the application in question.

The supplied meter is configured from the factory and ready for use, however it can be changed/reconfigured after installation.

Please note that the points marked “Total prog” cannot be changed without breaking the verification seal. This means that the change must be carried out by an accredited meter laboratory.

We currently develop new functions and modules for MULTICAL

®

801. Please contact Kamstrup A/S if your

application is not covered by the variants shown.

3.1 Type and programming overview

Type number 67-x-x-xx-xxx-xxx

Total prog

Choice of calculator, modules,

sensor pairs and flow sensor

Prog. A-B-CCC-CCC

Total prog

Config. DDD-EE-FF-GG-M-N

Partial prog.

Data

Partial prog.

MULTICAL® 801

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3.2 Type number composition

*) ULTRAFLOW is packed in a separate carton which is strapped together with the MULTICAL 801 carton. The cable between MULTICAL



801 and ULTRAFLOW it not connected from the factory.

**) GSM module and RF module are NOT combinable in one meter.

MULTICAL



801 Type 67-

         

Sensor connection

Pt100 4-wire (T1-T2-T3) No analog outputs

F

Pt500 4-wire (T1-T2-T3) No analog outputs

G

Pt100 4-wire (T1-T2-T3) 4 analog outputs

K

Pt500 4-wire (T1-T2-T3) 4 analog outputs

L

Module 2 (VA and VB are not available for module position 2)

No module

0

SIOX module (Auto detect Baud)

M

M-Bus (Alternative registers)

P

M-Bus modul with MCIII data package

Q

M-Bus V RadioRouter **)

W

LonWorks, FTT-10A

Y

GSM/GPRS module **)

Z

3G GSM/GPRS module (GSM8H)

U

Ethernet/IP module (IP201)

T

Module 1 (VA and VB are available for module position 1)

No module

00

M-Bus + pulse inputs

20

RadioRouter + pulse inputs **)

21

Data logger + 4-20 mA inputs + pulse inputs

22

LonWorks, FTT-10A + pulse inputs

24

M-Bus (Alt. reg.) + pulse inputs

27

M-Bus module with MC-III data package + pulse inputs

29

Wireless M-Bus Mode C1 + pulse inputs

30

Wireless M-Bus Mode T1 OMS 15 min. (Individual key )

31

Wireless M-Bus Mode C1 Alt. reg. (Individual key) + pulse inputs

35

Wireless M-Bus Mode C1 Fixed Network (Individual key)

38

ZigBee 2.4 GHz int.ant. + pulse inputs

60

Metasys N2 (RS485) + pulse inputs

62

SIOX module (Auto detect Baud rate)

64

BACnet MS/TP + pules inputs

66

Modbus RTU + pulse inputs

67

High Power Radio Router + pulse inputs

84

Supply

230 VAC supply

7

24 VAC supply

8

Pt500 sensor pair (2-wire sensors)

No sensor pair

0

Pocket sensor pair with 1.5 m cable

A

Pocket sensor pair with 3.0 m cable

B

Pocket sensor pair with 5 m cable

C

Pocket sensor pair with 10 m cable

D

Short direct sensor pair with 1.5 m cable

F

Short direct sensor pair with 3.0 m cable

G

Set of 3 pocket sensors with 1.5 m cable

L

Set of 3 short direct sensors with 1.5 m cable

Q3

Flow sensor/pick-up unit

1 ULTRAFLOW included *)

(specificy type)

1

2 nos. ULTRAFLOW included *)

(specificy type)

2

Prepared for 1 ULTRAFLOW



(specificy type)

7

Prepared for 2 nos. (identical) ULTRAFLOW



(specificy type)

8

Prepared for meters w/Reed switch output (both V1 and V2)

L

Prepared for foreign flowpart with passive/active pulses

N

Meter type

Heat meter, (MID module B+D)

2

Heat/cooling meter (MID modules B+D & TS+DK268)

3

Heat meter, National approvals

4

Cooling meter (TS27.02+DK268)

5

Heat/Cooling meter

6

Volume meter, hot water

7

Volume meter, cooling water

8

Energy meter

9

Delivery code (language on label etc.)

XX

MULTICAL® 801

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Kamstrup A/S · Technical Description · 5512-571_R1_GB_11_2016

3.2.1 Accessories

30-26-857 Flow meter bracket

66-99-098 Data cable w/USB plug 66-99-099 Infrared optical reading head w/USB plug

66-99-102 Infrared optical reading head RS232 w/D-sub 9F

66-99-106 Data cable RS232, D-sub 9F 66-99-136 Infrared optical reading head for Kamstrup/EVL w/RS232 w/D-sub 9F 66-99-144 Infrared optical reading head for Kamstrup/EVL w/USB plug

66-99-370 Verification unit, Pt100 (to be used with METERTOOL)

66-99-371 Verification unit, Pt500 (to be used with METERTOOL) 66-99-619 Batteri backup (2xA cell lithium battery) 66-99-278 Short circuit pen (for total reset and total programming) 66-99-209 Short circuit jumper (for use with 2-wire temperature sensors) 16-40-080 Jumper for modules 65-56-4x-xxx Temperature sensor pair with connection head (2/4-wire) 59-20-177 Cable gland wrench 15 mm (hardened galvanised steel) 59-20-178 Cable gland wrench 19 mm (hardened galvanised steel) 66-99-103 Q144 dummy cover (144 mm x 144 mm) for blinding in panels/racks 66-99-634 24VAC High Power SMPS modul

66-99-622 230 VAC High Power SMPS modul 679xxxxxx2xx External Communication Box 66-99-724 METERTOOL for HCW

66-99-725 LogView for HCW

Contact Kamstrup A/S for questions about further accessories.

3.3 PROG, A-B-CCC-CCC

The Prog, which cannot be changed without breaking the verification seal, determines the meter’s legal parameters. This means that the change must be made by an accredited laboratory.

The A-code states whether flow sensor (V1) is installed in inlet or outlet pipe. As the volume of water increases with temperature, the calculator must correct for the installation form in question. Wrong programming or installation results in measuring errors. Further details concerning installation of flow sensor in inlet and outlet in connection with heat and cooling meters appear from section 5.1.

The B-code indicates the measuring unit used for the energy register. GJ, kWh or MWh are the most used units, whereas only a few countries outside the EEA use Gcal.

The CCC-code states the calculator’s adaption to a specific flow sensor type to the effect that calculating speed and display resolution are optimized for the selected flow sensor at the same time as type approval regulations about minimum resolution and maximum register overflow are obeyed. We have divided the CCC-codes into smaller tables in order to obtain a faster overview.

CCC(V1) states the CCC-code of the flow sensor connected to flow sensor input V1 on terminals 9-10-11 (or 10B-

11B). In most applications, this is the flow sensor used for energy calculation.

CCC(V2) states the CCC-code of a possible extra flow sensor, which can be connected on terminals 9-69-11 (or 69B-

79B). If V2 is not used, CCC(V2) is equal to CCC(V1). For leak surveillance CCC(V2) must be equal to CCC(V1).

MULTICAL® 801

Kamstrup A/S · Technical Description · 5512-571_R1_GB _11.2016

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Prog. number

A - B

-

CCC (V1)

-

CCC (V1)

Flow meter position

k-factor

table

- Inlet (at T1)

3

- Outlet (at T2)

4

Measuring unit, Energy

- x10 GJ 1 - GJ 2 - kWh 3 - MWh 4 - Gcal 5

Flow meter coding (CCC-table)

CCC CCC

MULTICAL® 801

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Kamstrup A/S · Technical Description · 5512-571_R1_GB_11_2016

3.3.1 CCC-TABLE FOR MULTICAL



801

The CCC-tables are divided into quick codes (CCC=4XX and 1XX) for electronic meters, e.g. ULTRAFLOW



, and slow

codes for e.g. reed contacts (CCC=0XX).

CCC= 4XX Electronic meters with quick and bounce-free pulses as well as info codes for ULTRAFLOW



X4

Max. pulse frequency: 128 Hz

Max. integration frequency: 1 Hz

CCC= 1XX Electronic meters with quick and bounce-free pulses

Max. pulse frequency: 128 Hz

Max. integration frequency: 1 Hz

CCC= 0XX Mechanical meters delivering slow pulses with bounce (flow sensor type "L")

Max. pulse frequency: 1 Hz

Max. integration frequency: 1 Hz

Max. integration frequency is 1 Hz for all types. The CCC-codes have been so composed that qs+20 % (or Qmax+20 %) does not exceed an integration frequency of 1 Hz.

Example: CCC=107 (applying to a qp 1.5 m

3

/h meter) : 1 Hz integration frequency is obtained at q = 3.6 m3/h.

EN 1434 comprises requirements to the resolution and register size of the energy indication. MULTICAL

®

801

fulfils these requirements provided that it is connected to one of the below-mentioned flow sensor sizes:

[kWh] qp 0.6 m

3

/h…15 m3/h

[MWh] qp 0.6 m

3

/h…15000 m3/h

[GJ] qp 0.6 m

3

/h…30000 m3/h

MULTICAL® 801

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3.3.2 CCC-codes for ULTRAFLOW



X4

Number of decimals in display

CCC

No.

Pre-

counter

Flow

factor

kWh MWh

Gcal

GJ m³

[ton]

l/h m³/h kW MW Imp./l qp

[m³/h]

Type No. Flow sensor

416 3000 78642 0 3 2 2 0 - 1 - 300 0.6 65-X-CAAA-XXX 1-2-7-8

65-X-CAAD-XXX

65-X-CAAF-XXX

484 300 78642 1 - 3 3 0 - 1 - 300 0.6 1-2-7-8

419 1000 235926 0 3 2 2 0 - 1 - 100 1.5 65-X-CDA1-XXX 1-2-7-8

65-X-CDAA-XXX

65-X-CDAC-XXX

65-X-CDAD-XXX

65-X-CDAE-XXX

65-X-CDAF-XXX

65-X-CDBA-XXX

407 100 235926 1 - 3 3 0 - 1 - 100 1.5 1-2-7-8

498 600 393210 0 3 2 2 0 - 1 - 60 2.5 65-X-CEAF-XXX 1-2-7-8

65-X-CEB/CA-XXX

451 5000 471852 - 2 1 1 0 - 1 - 50 3.5 65-X-CGAG-XXX 1-2-7-8

65-X-CGB/CB-XXX

436 500 471852 0 3 2 2 0 - 1 - 50 3.5 1-2-7-8

437 2500 943704 - 2 1 1 0 1 - 25 6 65-X-CHAF-XXX 1-2-7-8

65-X-CHAG-XXX

65-X-CHAH-XXX

65-X-CHB/CB-XXX

438 250 943704 0 3 2 2 0 - 1 - 25 6 1-2-7-8

447 1000 2359260 - 1 0 0 - 2 - 3 1,0 150 65-5-FCCN-XXX 1-2-7-8

478 1500 1572840 - 2 1 1 0 - 1 - 15 10 65-X-CJAJ-XXX 1-2-7-8

65-X-CJB/C2-XXX

65-X-CJB/CD-XXX

481 600 3932100 - 1 0 0 - 2 - 3 0,6 250 65-5-FDCN-XXX 1-2-7-8

483 150 1572840 0 3 2 2 0 - 1 - 15 10 1-2-7-8

420 1000 2359260 - 2 1 1 0 - 1 - 10 15 65-X-CKB/C4-XXX 1-2-7-8

65-X-CKB/CE-XXX

485 100 2359260 0 3 2 2 0 - 1 - 10 15 1-2-7-8

479 600 3932100 - 2 1 1 0 - 1 - 6 25 65-X-CLBG-XXX 1-2-7-8

458 5000 471852 - 1 0 0 - 2 0 - 5 40 65-X-CMBH-XXX 1-2-7-8

65-X-CMBJ-XXX

486 500 471852 - 2 1 1 - 2 0 - 5 40 1-2-7-8

470 2500 943704 - 1 0 0 - 2 - 3 2,5 60 65-X-FACL-XXX 1-2-7-8

487 250 943704 - 2 1 1 - 2 - 3 2,5 60 1-2-7-8

480 1500 1572840 - 1 0 0 - 2 - 3 1,5 100 65-X-FBCL-XXX 1-2-7-8

488 150 1572840 - 2 1 1 - 2 - 3 1,5 100 1-2-7-8

489 100 2359260 - 2 1 1 - 2 - 3 1,0 150 65-5-FCCN-XXX 1-2-7-8-N

491 400 589815 - 1 0 0 - 1 - 2 0,4 400 65-5-FECN-XXX 1-2-7-8-N

65-5-FECP-XXX

65-5-FECR-XXX

MULTICAL® 801

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Kamstrup A/S · Technical Description · 5512-571_R1_GB_11_2016

492 250 943704 - 1 0 0 - 1 - 2 0,25 600 65-5-FFCP-XXX 1-2-7-8-N

65-5-FFCR-XXX

493 150 1572840 - 1 0 0 - 1 - 2 0,15 1000 65-5-FGCR-XXX 1-2-7-8

ULTRAFLOW® high-resolution CCC-codes

3.3.3 CCC-codes for ULTRAFLOW



II, type 65 54 XXX

Number of decimals in display

CCC

No.

Pre-

count

er

Flow factor

kWh

MWh

Gcal

GJ m³

[tons]

l/h m³/h kW MW Imp./l

qp

[m³/h]

Type No. Flow

sensor

116 3000 78642 0 3 2 2 0 1 300 0.6 65 54 A8X

65 54 AAX

1-2-7-8-N

119 1000 235926 0 3 2 2 0 1 100 1.5 65 54 A6X

65 54 A7X 65 54 A1X 65 54 A2X 65 54 A3X

1-2-7-8

136 500 471852 0 3 2 2 0 1 50.0 2.5

65 54 A4X 65 54 ADX

1-2-7-8

151 5000 471852 2 1 1 0 1 50.0 3.5 65 54 B1X

65 54 B7X

1-2-7-8

137 2500 943704 2 1 1 0 1 25.0 6.0

6.0 10 10

65 54 B2X 65 54 B2X 65 54 BGX 65 54 BHX

1-2-7-8

120 1000 2359260 2 1 1 0 1 10.0 15

25

65 54 B4X 65 54 B8X

1-2-7-8

158 5000 471852 1 0 0 2 0 5.0 40 65 54 B9X 1-2-7-8 170 2500 943704 1 0 0 2 3 2.5 60 65 54 BAX 1-2-7-8 147 1000 2359260 1 0 0 2 3 1.0 150 65 54 BBX 1-2-7-8 194 400 5898150 1 0 0 2 3 0.4 400 65 54 BCX 1-2-7-8 195 250 9437040 1 0 0 2 3 0.25 1000 65 54 BKX 1-2-7-8 198 600 393210 0 3 2 2 0 - 1 - 60.0 2.5 65 54 XXX 1-2-7-8

Current flow indication (l/h or m³/h) is calculated based on volume pulses/10 s (see paragraph 6.5)

MULTICAL® 801

Kamstrup A/S · Technical Description · 5512-571_R1_GB _11.2016

19

3.3.4 CCC-codes for ULTRAFLOW



type 65-R/S/T

Number of decimals in display

CCC

No.

Pre-

count

er

Flow

factor

kWh

MWh

Gcal

GJ m³

[tons]

l/h m³/h kW MW Imp./l

qp

[m³/h]

Type No. Flow

sensor

116 3000 78642 0 3 2 2 0 1 300 0.6 65-X-CAAA-XXX

65-X-CAAD-XXX

1-2-7-8-N

119 1000 235926 0 3 2 2 0 1 100 1.5 65-X-CDAC-XXX

65-X-CDAD-XXX 65-X-CDAE-XXX

65-X-CDAF-XXX

65-X-CDAA-XXX

1-2-7-8-N

136 500 471852 0 3 2 2 0 1 50.0 3.0 65-X-CFAF-XXX

65-X-CFBA-XXX

1-2-7-8-N

151 5000 471852 2 1 1 0 1 50.0 3.5 65-X-CGAG-XXX

65-X-CGBB-XXX

1-2-7-8-N

137 2500 943704 2 1 1 0 1 25.0 6

6 10 10

65-X-CHAG-XXX 65-X-CHBB-XXX

65-X-C1AJ-XXX

65-X-C1BD-XXX

1-2-7-8-N

178 1500 1572840 2 1 1 0 1 15.0 10 65-X-CJAJ-XXX

65-X-CJBD-XXX

1-2-7-8-N

120 1000 2359260 2 1 1 0 1 10.0 15 65-X-CKBE-XXX 1-2-7-8-N 179 600 3932100 2 1 1 0 1 6.0 25 65-X-CLBG-XXX 1-2-7-8-N

120

1000

2359260

2 1 1 0 1 10.0

25

65-X-C2BG-XXX

1-2-7-8-N

158 5000 471852 1 0 0 2 0 5.0 40

65-X-CMBH-

XXX

1-2-7-8-N

170 2500 943704 1 0 0 2 3 2.5 60 65-X-FABL-XXX

65-X-FACL-XXX

1-2-7-8-N

180 1500 1572840 1 0 0 2 3 1.5 100 65-X-FBCL-XXX 1-2-7-8-N 147 1000 2359260 1 0 0 2 3 1.0 150 65-X-FCBN-XXX

65-X-FCCN-XXX

1-2-7-8-N

181 600 3932100 1 0 0 2 3 0.6 250 65-X-FDCN-XXX 1-2-7-8-N 191 400 589815 1 0 0 1 2 0.4 400 65-X-FEBN-XXX

65-X-FEBR-XXX 65-X-FECN-XXX 65-X-FECP-XXX 65-X-FECR-XXX

1-2-7-8-N

192 250 943704 1 0 0 1 2 0.25 600

600 1000 1000

65-X-FFCP-XXX 65-X-FFCR-XXX 65-X-F1BR-XXX 65-X-F1CR-XXX

1-2-7-8-N

193 150 1572840 1 0 0 1 2 0.15 1000 65-X-FGBR-XXX 1-2-7-8-N

Current flow indication (l/h or m³/h) is calculated based on volume pulses/10 s (see paragraph 6.5)

MULTICAL® 801

20

Kamstrup A/S · Technical Description · 5512-571_R1_GB_11_2016

3.3.5 High-resolution CCC-codes for ULTRAFLOW



(for cooling meters etc.)

Number of decimals in display

CCC

No.

Pre-

count

er

Flow

factor

kWh

MWh

Gcal

GJ m³

[tons]

l/h m³/h kW MW Imp./l

qp

[m³/h]

Type No. Flow

sensor

184 300 78642 1 3 3 0 1 300 0.6 1-2-7-8 107 100 235926 1 3 3 0 1 100 1.5 1-2-7-8-N 136 500 471852 0 3 2 2 0 1 50.0 3.5 1-2-7-8-N 138 250 943704 0 3 2 2 0 1 25.0 6.0

10

1-2-7-8-N

183 150 1572840 0 3 2 2 0 1 15.0 10 1-2-7-8 185 100 2359260 0 3 2 2 0 1 10.0 15 1-2-7-8-N 186 500 471852 2 1 1 2 0 5.0 40 1-2-7-8-N 187 250 943704 2 1 1 2 3 2.5 60 1-2-7-8-N 188 150 1572840 2 1 1 2 3 1.5 100 1-2-7-8 189 100 2359260 2 1 1 2 3 1.0 150 1-2-7-8-N 191 400 589815 1 0 0 1 2 0.4 400 1-2-7-8-N 192 250 943704 1 0 0 1 2 0.25 600

1000

1-2-7-8-N

193 150 1572840 1 0 0 1 2 0.15 1000 1-2-7-8

Current flow indication (l/h or m³/h) is calculated based on volume pulses/10 s (see paragraph 6.5)

MULTICAL® 801

Kamstrup A/S · Technical Description · 5512-571_R1_GB _11.2016

21

3.3.6 CCC-codes for other electronic meters with passive or active output

Number of decimals in display

CCC

No.

Pre-

counter

Flow factor MWh

Gcal

GJ m³

[tons]

m³/h kW MW l/imp Imp./l

Qmax

[m³/h]

Type Flow

sensor

147 1000 2359260 1 0 0 2 3 1 - 18...75 SC-18

N

148 400 5898150 1 0 0 2 3 2.5 - 120…300 SC-120

N

149 100 2359260 1 0 0 1 - 2 10 - 450…1200 SC-450

N

150 20 11796300 1 0 0 1 - 2 50 - 1800…3000 SC-1800

N

175 7500 314568 1 0 0 2 3 - 7.5 15…30 DF-15

N

176 4500 524280 1 0 0 2 3 - 4.5 25…50 DF-25

N

177 2500 943704 1 0 0 2 3 - 2.5 40…80 DF-40

N

Number of decimals in display

CCC

No.

Pre-

counter

Flow factor MWh

Gcal

GJ m³

[tons]

m³/h MW l/imp Imp./l

Qp range

[m³/h]

Qs

[m³/h]

Type Flow

sensor

201 100 235926 2 1 1 1 2 1 1 10…100

75 FUS380

DN50-65

N

202 40 589815 2 1 1 1 2 2.5 0.4 40…200

240 FUS380

DN80-100

N

203 400 589815 1 0 0 1 2 2.5 0.4 100…400

500 FUS380

DN125

N

204 100 235926 1 0 0 0 1 10 0.1 150…1200 1600 FUS380

DN150-250

N

205 20 1179630 1 0 0 0 1 50 0.02 500…3000 3600 FUS380

DN300-400

N

206 100 2359260 0 x10

*)

x10

*)

0 1 100 0.01 1400…18000 36000 FUS380

DN5001200

N

Current flow indication (l/h or m³/h) is calculated based on volume pulses/10 s (see paragraph 6.5)

*) Under this CCC code, the count will display the seven most significant digtes, followed by “0”

MULTICAL® 801

22

Kamstrup A/S · Technical Description · 5512-571_R1_GB_11_2016

3.3.7 CCC-codes for vane-wheel meters with electronic pick-up

Number of decimals in display

CCC

No.

Pre-

count

er

Flow factor

kW

h

MWh

Gcal

GJ m³

[tons]

l/h m³/h kW MW Imp./l

qp

[m³/h]

Type Flow

sensor

108 1403 168158 0 3 2 2 0 1 140.3 0.6 GWF

N

109 957 246527 0 3 2 2 0 1 95.7 1.0 GWF

N

110 646 365211 0 3 2 2 0 1 64.6 1.5 GWF

N

111 404 583975 0 3 2 2 0 1 40.4 1.5 (2.5) HM (GWF)

N

112 502 469972 0 3 2 2 0 1 50.2 1.5 – 2.5* GWF

N

113 2350 1003940 2 1 1 0 1 23.5 3.5 - 6* GWF

N

114 712 331357 2 1 1 0 1 7.12 10 - 15* GWF

N

115 757 311659 0 3 2 2 0 1 75.7 1.0* GWF

N

116 3000 78642 0 3 2 2 0 1 300.0 0.6* GWF

N

117 269 877048 0 3 2 2 0 1 26.9 1.5 Brunata

N

118 665 354776 0 3 2 2 0 1 66.5 1.5 Aquastar

N

119 1000 235926 0 3 2 2 0 1 100.0 0.6 HM

N

121

294

802469

0 3 2 2 0 1 29.4

1.5 – 2.5

N

122 1668 141442 0 3 2 2 0 1 166.8 0.6 HM

N

123 864 273063 0 3 2 2 0 1 86. 0.5 - 1* HM

N

124 522 451966 0 3 2 2 0 1 52. 2. (1.5*) CG (HM)

N

125 607 388675 0 3 2 2 0 1 60.7 1.5 - 1*

1.5*

HM

N

126 420 561729 0 3 2 2 0 1 42.0 1.0 (2.5*) CG (HM)

N

127 2982 791167 2 1 1 0 1 29.82 2.5

3.5*

HM

N

128 2424 973292 2 1 1 0 1 24.24 3.5* HM

N

129 1854 1272524 2 1 1 0 1 18.54 6* HM

N

130 770 3063974 2 1 1 0 1 7.7 10* HM

N

131 700 3370371 2 1 1 0 1 7.0 15* HM

N

132 365 645665 0 3 2 2 0 1 36.54 2.5 Wehrle

N

133 604 390154 0 3 2 2 0 1 60.47 1.5 Wehrle

N

134 1230 191732 0 3 2 2 0 1 123.05 0.6 Wehrle

N

135 1600 1474538 2 1 1 0 1 16.0 10* HM

N

139 256 921586 0 3 2 2 0 1 25.6 1.5 – 2.5 GWF

N

140 1280 1843172 2 1 1 0 1 12.8 3.5 – 5.0 GWF

N

141 1140 2069526 2 1 1 0 1 11.4 6 GWF

N

142 400 589815 2 1 1 2 3 4 10 GWF

N

143 320 737269 2 1 1 2 3 3.2 10 - 15 GWF

N

144 1280 1843172 1 0 0 2 3 1.28 25 - 40 GWF

N

145 640 3686344 1 0 0 2 3 0.64 60 GWF

N

146 128 18431719 1 0 0 2 3 0.128 125 GWF

N

152 1194 1975930 2 1 1 0 1 11.94 10 GWF

N

153 1014 2326686 2 1 1 0 1 10.14 15 GWF

N

156 594 397182 0 3 2 2 0 1 59.4 1.5 Metron

N

157 3764 626796 2 1 1 0 1 37.64 2.5 Metron

N

163 1224 192750 0 3 2 2 0 1 122.4 0.6 – 1.0 GWF/U2

N

164

852

280064

0 3 2 2 0 1 85.24

1.5

GWF/U2

N

165 599 393735 0 3 2 2 0 1 59.92 2.5 GWF/U2

N

168 449 5259161 2 1 1 0 1 4.486 15/25 HM/WS

N

169 1386 1702208 1 0 0 2 0 1.386 40 HM/WS

N

173 500 471852 1 0 0 1 2 0.5 80 Westland

N

Current flow indication (l/h or m³/h) is calculated based on volume pulses/10 s (see paragraph 6.5)

* Multiple-jet water meter

MULTICAL® 801

Kamstrup A/S · Technical Description · 5512-571_R1_GB _11.2016

23

3.3.8 CCC-codes for mechanical flow sensors with reed contact

Number of decimals in display

CCC

No.

Pre-

count

er

Flow

factor

kWh

MWh

Gcal

GJ m³

[tons]

m³/h l/h kW MW l/imp Imp./l

Qmax

[m³/h]

Flow

sensor

010 1 921600 1 - 3 3 - 0 1 - 1 1

≤ 3,0

L

011 1 921600 - 3 2 2 2 0 - 10 0.1 1…30

L

012 1 921600 - 2 1 1 1 - 2 100 0.01 10…300

L

013 1 921600 - 1 0 0 0 - 1 1000 0.001 100…3000

L

020 4 230400 0 3 2 2 2 0 - 2.5 0.4

≤ 6

L

021 4 230400 - 2 1 1 1 - 2 25 0.04 3…60

L

022 4 230400 - 1 0 0 0 - 1 250 0.004 30…600

L

Current flow indication (l/h or m³/h) is calculated based on measured duration between two volume pulses. (see paragraph 6.5)

Selecting one of the above-mentioned CCC-codes, both CCC (V1) and CCC (V2) must be selected from this table.

Note: CCC=9XX cannot be used for MULTICAL

®

801, but only for MULTICAL® 602.

Note: Continuous maximum water flow and permanent ∆Θ > 75 K may cause overflow in the daily data logger at

CCC=010-011-012-013-150-202-205-206. With these combinations, we recommend you to use the built Prog. data logger.

MULTICAL® 801

24

Kamstrup A/S · Technical Description · 5512-571_R1_GB_11_2016

3.4 Display coding

Display code ”DDD” indicates the active readings of each meter type. ”1” is the first primary reading, whereas e.g. ”1A” is the first secondary reading. The display automatically returns to reading ”1” after 4 minutes.

Date Stamp

Heat meter

DDD=210 Heat meter

DDD=410 Cooling meter

DDD=510 Heat/cooling

DDD=610 Heat volume

DDD=710 Coolingvolume

DDD=810 Heat meter

DDD=910

1.0

Heat energy (E1)

1

1 1

1

1.1

Yearly data

•

1A

1A 1A

1.2

Monthly data

•

1B

1B 1B

1A

2.0

Cooling energy (E3)

1

2

2.1

Yearly data

•

1A

2A

2.2

Monthly data

•

1B

2B

3.X

3.1

E2

3.2

E4

2

3.3

E5 2A

3.4

E6 2B

3.5

E7 2C

3.6

E8 (m3*tf)

2

3.7

E9 (m3*tr)

2A

4.0

Volume V1

3 3 2 3 1 1 3

4.1

Yearly data

•

3A

2A

3A

1A

4.2

Monthly data

•

3B

2B

3B

1B

3A

4.3

Mass 1 3B

4.4

P1 3C

5.0

Volume V2

4

5.1

Yearly data

•

5.2

Monthly data

•

4A

5.3

Mass 2 4B

5.4

P2 4C

6.0

Hour counter

4 4 3 4 2 2 5

7.0

T1 (Inlet)

5 5 4

5

6

7.1

Year-to-date average

5A

4A

5A

7.2

Month-to-date average

5B

4B

5B

8.0

T2 (Outlet)

6 6 5

6

7

8.1

Year-to-date average

6A

5A

6A

8.2

Month-to-date average

6B

5B

6B

9.0

T1-T2 (∆t) - = cooling

7 7 6

7

8

10.0

T3

9

11.0

T4 (prog.)

10

12.0

Flow (V1)

8 8 7 8 3 3 11

12.1

This year’s max.

•

8A

7A

8A

3A

12.2

Max. yearly data

•

12.3

This year’s min.

•

12.4

Min. yearly data

•

12.5

This month’s max.

•

12.6

Max. monthly data

•

8B

7B

8B

3B

11A

12.7

This month’s min.

•

12.8

Min. monthly data

•

8C

7C

8C

3C

11B

13.0

Flow (V2)

9

4 4 12

14.0

Power (V1)

10

10 8 9

13

14.1

This year’s max.

•

10A

8A

9A

14.2

Max. yearly data

•

14.3

This year’s min.

•

14.4

Min. yearly data

•

14.5

This month’s max.

•

14.6

Max. monthly data

•

10B

8B

9B

14.7

This month’s min.

•

14.8

Min. monthly data

•

10C

8C

9C

MULTICAL® 801

Kamstrup A/S · Technical Description · 5512-571_R1_GB _11.2016

25

Date Stamp

Heat meter

DDD=210 Heat meter

DDD=410

Cooling meter

DDD=510 Heat/cooling

DDD=610 Heatvolume

DDD=710 Coolingvolume

DDD=810 Heat meter

DDD=910

15.0

VA (Input A)

11

11 9 10 5 5

14

15.1

Meter No. VA

11A

9A

10A

5A

14A

15.2

Yearly data

•

11B

9B

10B

5B

14B

15.3

Monthly data

•

11C

9C

10C

5C

14C

16.0

VB (Input B)

12

10

11 6 6

15

16.1

Meter No. VB

12A

10A

11A

6A

15A

16.2

Yearly data

•

12B

10B

11B

6B

15B

16.3

Monthly data

•

12C

10C

11C

6C

15C

17.0

TA2

13

13 12

17.1

TL2 13A

13A

18.0

TA3

14

14 13

18.1

TL3 13A

13A

19.0

Info Code

15

11

14 7 7

16

19.1

Info event counter

15A

11A

14A

7A

16A

19.2

Info logger (latest 36 events)

•

15B

11B

14B

7B

16B

20.0

Customer No. (No 1+2)

16

12

15 8 8

17

20.1

Date

16A

12A

15A

8A

17A

20.2

Hour 16B

16B

12B

15B

8B

17B

20.3

Target date

16C

12C

15C

8C

17C

20.4

Serial no. (No 3)

16D

12D

15D

8D

17D

20.5

Prog. (A-B-CCC-CCC) (No 4)

16E

12E

15E

8E

17E

20.6

Config 1 (DDD-EE) (No 5)

16F

12F

15F

8F

17F

20.7

Config 2 (FF-GG-M-N) (No 6)

16G

12G

15G

8G

17G

20.8

Software edition (No 10)

16H

12H

15H

8H

17H

20.9

Software check sum (No 11)

16I

12I

15I

8I

17I

20.10

Segment test

16J

12J

15J

8J

17J

20.14

Module type 1 (No 30)

16K

12K

15K

8K

17K

20.15

Module 1 primary adr. (No 31)

16L

12L

15L

8L

17L

20.16

Module 1 secondary adr. (No32)

16M

12M

15M

8M

17M

20.17

Module type 2 (No40)

16N

12N

15N

8N

17N

20.18

Module 2 primary adr. (No41)

16O

12O

15O

8O

17O

20.19

Module 2 secondary adr. (No42)

16P

12P

15P

8P

17P

20.20

Module external type (No50)

16Q

12Q

15Q

8Q

17Q

20.21

Module external prim. add. (No51)

16R

12R

15R

8R

17R

20.22

Module secondary add. (No52)

16S

12S

15S

8S

17S Number of yearly data displayed (1…15)

2 2 2 2 2 2

2

Number of monthly data displayed (1…36)

12

DDD=210 is the ”standard code” of heat meters with meter type 67xxxxxxx2xx. Please contact Kamstrup for other combinations. A DDD-code can contain max. 103 readings, including 4 data logger readings. Top module no. and base module no. to be left out of account. A complete overview of existing display codes (DDD) appears from a separate document (5512-593). Please contact Kamstrup for further details.

Note: One data reading can collect up to 36 monthly data and up to 15 yearly data. The number of yearly and monthly data that can be displayed is determined by the DDD-code.

MULTICAL® 801

26

Kamstrup A/S · Technical Description · 5512-571_R1_GB_11_2016

3.4.1 Energy overview

The above-mentioned energy types E1 to E9 are calculated as follows:

Formula

∆Θ

Example of an application

Included in Application No.

(see paragraph 6.2)

Register type

E1=V1(T1-T2)k

T1: Inlet / T2: Outlet

T1 > T2 Heat energy (V1 in inlet or outlet pipe) 1+2+3+4+5+6+8 Legal Display/Data/Log

E2=V2(T1-T2)k

T2: Outle t

T1 > T2 Heat energy (V2 in outlet pipe) 2+7

Display/Data/Log

E3=V1(T2-T1)k

T2: Inlet / T1: Outlet

T2 > T1 Cooling energy (V1 in inlet or outlet pipe) 1+10 Legal Display/Data/Log

E4=V1(T1-T3)k

T1: Inlet

T1 > T3 Forwarded energy 7+9+10 Display/Data/Log

E5=V2(T2-T3)k

T2: Inlet

T2 > T3 Returned energy or tap from outlet pipe 5+7+9 Display/Data/Log

E6=V2(T3-T4)k

T3: Inlet

T3 > T4 Tap water energy, separate 3+6

Display/Data/Log

E7=V2(T1-T3)k

T3: Outlet

T1 > T3 Returned energy or tap from inlet pipe 4+8

Display/Data/Log

E8=m3 x T1 - Average temperature in inlet pipe

See paragraph 6.2.2

Display/Data/Log

E9=m3 x T2 - Average temperature in outlet pipe Display/Data/Log

3.5 >EE< Configuration of MULTI-TARIFF

MULTICAL® 801 has 2 extra registers, TA2 and TA3, which can accumulate heat energy E1 (EE=20 accumulates volume) parallel with the main register based on the limits programmed for tariff limits TL2 and TL3.

Example: EE=11 (Power tariff)

TA2 shows energy consumed…

…above the power limit TL2

EE= TARIFF TYPE FUNCTION

Delivery code 2xx

Delivery code 4xx

Delivery code 5xx

Delivery code 6xx

Delivery code 7xx

Delivery code 8xx

Delivery code 9xx

00 No active tariff

No function

11

Power tariff

Energy is accumulated in TA2 and TA3 based on the power limits in TL2 and TL3.

• •

12

Flow tariff

Energy is accumulated in TA2 and TA3 based on the flow limits in TL2 and TL3.

• •

13

T1-T2 tariff

Energy is accumulated in TA2 and TA3 based on the ∆t-limits in TL2 and TL3.

• •

14

Inlet temperature tariff

Energy is accumulated in TA2 and TA3 based on the tF-limits in TL2 and TL3.

• •

15

Outlet temperature tariff

Energy is accumulated in TA2 and TA3 based on the tR-limits in TL2 and TL3.

• •

19

Time controlled tariff

TL2=Start time for TA2 TL3=Start time for TA3

• •

20

Heat/cooling volume tariff (TL2 and TL3 are not used)

Volume (V1) is divided into TA2 for heat (T1>T2) and TA3 for cooling (T1<T2). (Recommended for heat/cooling applications)

• • •

21

PQ-tariff

Energy if P>TL2 is saved in TA2 and energy if Q>TL3 is saved in TA3 • •

See paragraph 6.9 for further details on the tariff registers.

MULTICAL® 801

Kamstrup A/S · Technical Description · 5512-571_R1_GB _11.2016

27

3.6 >FF< Input A (VA), pulse division >GG< Input B (VB), pulse division

MULTICAL

®

801 has 2 pulse inputs, VA and VB, which are placed on base module 1 (see paragraph 7.2 for further

details). The inputs are individually configured via the FF and GG codes as shown in the table below.

In the absence of other information from the customer the inputs will be configured as FF=24 and GG=24.

Input A

Terminal 65-66

Input B

Terminal 67-68

FF

Max. input

f ≤1Hz

GG

Max. input

f ≤1 Hz

Precounter Wh/imp l/imp

Measuring unit anddecimal

point

01 100 m³ h

1 - 100 vol A/vol b (m3) 000000.0

02 50 m³ h

2 - 50 vol A/vol b (m3)

000000,0

03 25 m³ h

4 - 25 vol A/vol b (m3) 000000.0

04 10 m³ h

10 - 10 vol A/vol b (m3) 000000.0

05 5 m³ h

20 - 5.0 vol A/vol b (m3) 000000.0

06

2.5 m³ h

06

2.5 m³ h

40 - 2.5 vol A/vol b (m3) 000000.0

07

1 m³ h

07

1 m³ h

100 - 1.0 vol A/vol b (m3) 000000.0

24

10 m³ h

24

10 m³ h

1 - 10

vol A/vol b (m

3

)

00000.00

25

5 m³ h

25

5 m³ h

2 - 5.0

vol A/vol b (m3)

00000.00

26

2.5 m³ h

26

2.5 m³ h

4 - 2.5

vol A/vol b (m3)

00000.00

27

1 m³ h

27

1 m³ h

10 - 1,0

vol A/vol b (m3)

00000,00

40

1,000 m³ h

40

1,000 m³ h

1

-

1000

vol A/vol b (m3)

0000000

FF

Max. Input

f ≤3 Hz

GG

Max. Input

f ≤3 Hz

Precounter Wh/imp l/imp

Measuring unit anddecimal

position

50 2500 kW

1 1000 - EL A/EL b (kWh) 0000000

51 150 kW

60 16.67 - EL A/EL b (kWh) 0000000

52 120 kW

75 13.33 - EL A/EL b (kWh) 0000000

53 75 kW

120 8.333 - EL A/EL b (kWh) 0000000

54 30 kW

240 4.167 - EL A/EL b (kWh) 0000000

55 25 kW

340 2.941 - EL A/EL b (kWh) 0000000

56 20 kW

480 2.083 - EL A/EL b (kWh) 0000000

57 15 kW

600 1.667 - EL A/EL b (kWh) 0000000

58 7.5 kW

1000 1.000 - EL A/EL b (kWh) 0000000

59 750 kW

10 100 - EL A/EL b (kWh) 0000000

60 1250 kW

2 500 - EL A/EL b (kWh) 0000000

61 75 kW

100 10.00 - EL A/EL b (kWh) 0000000

62

15 kW

62

15 kW

500 2.000 - EL A/EL b (kWh) 0000000

70

25000 kW

70

25000 kW

1

10000

-

EL A/EL b (MWh)

00000.00

MULTICAL® 801

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Kamstrup A/S · Technical Description · 5512-571_R1_GB_11_2016

3.7 >MN< Configuration of leak limits

When MULTICAL 801 is used for leak surveillance, the sensitivity is determined by the configuration of ”M-N”.

District heating leak surveillance (V1-V2)

Cold water leak surveillance (VA)

M=

Sensivity of leak search

N=

Constant leakage at no consumption (pulse

resolution 10 l/imp)

0

OFF 0 OFF 1 1.0 % qp + 20 % q

1

20 l/h 3x10 min. (30 min. without pulses)

2

1.0 % qp + 10 % q

2

10 l/h 6x10 min. (1 hour without pulses)

3

0.5 % qp + 20 % q

3

5 l/h 12x10 min. (2 hours without pulses)

4

0.5 % qp + 10 % q

Note: M=2 and N=2 are default values when leak surveillance is used. Increased sensitivity, e.g. M=4, can only be achieved using METERTOOL.

Info codes for leakage/burst are only active when M

> 0 or N > 0 respectively.

MULTICAL® 801

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3.8 Data for configuration

Automatic

To be stated when ordering

Default

Serial no. (S/N) and year

E.g. 5300000/2009

-

Customer No.

Display No. 1 = 8 digits MSD

Display No. 2 = 8 digits LSD

- Up to 16 digits

Limited to 11 digits depending on PcBase compatibility

Customer number = S/N

Target date

-

MM=1-12 and DD=1-28

Depends on delivery code

TL2 - 5 digits

0

TL3 - 5 digits

0

Average peak time

-

1…1,440 min

60 min.

Max. T1 for cooling metering

-

0.01…180 °C

25 °C at DDD=5xx and 6xx

T2 prog.

0.01…180 °C

-

T3 prog.

0.01…180 °C

5 °C

T4 prog.

0.01…180 °C

0 °C

0°C

YYYY.MM.DD/hh.mm.ss

GMT+offset according to country code

GMT ± 12.0 hours

(30 min. in leaps)

-

Data registers for configuration of modules and functions

qp [l/h]

from CCC-table

- - Valve travel

-

20…500 s

300 s

Hysteresis

-

0.5…5 s

0.5 s

Primary data addr.

Secondary data addr.

Baud rate

Reserved

….. Reserved

Reserved: These registers are prepared for later extensions of the functionality of the modules. Therefore, they have no actual designations yet.

-COUNTRY CODES

Information on country codes see 55 14-170

- MAINTENANCE

See instructions no. 55 08-709 concerning update of programming and configuration.

MULTICAL® 801

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Kamstrup A/S · Technical Description · 5512-571_R1_GB_11_2016

4 Dimensioned sketches

Front measurements of MULTICAL

®

801 Installation measurements of MULTICAL® 801

Wallmounted MULTICAL

®

801 seen from the side Cable unions of MULTICAL® 801

All measurements in [mm]

MULTICAL® 801

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31

5 Installation

5.1 Mounting in inlet or outlet pipe

Prog. number

A

MULTICAL® 801 is programmed for flow meter mounted in either inlet

or

outlet pipe. The table below indicates installation conditions for: ♦ Heat meters ♦ Cooling meters ♦ Heat/cooling meters

Flow sensor position

k-factor

table

- Inlet (at T1)

3

- Outlet (at T2)

4

Formula

k-factor

Prog.

Hot

pipe

Cold

pipe

Installation:

Heat meter

E1=V1(T1-T2)k

k-factor for

T1 in

Inlet table

A=3 (Flow

sensor in

inlet pipe)

V1 and

T1

T2

k-factor for

T2 in

Outlet table

A=4 (Flow

sensor in

outlet pipe)

T1

V1 and

T2

Cooling meter

E3=V1(T2-T1)k

k-factor for

T1 in

Outlet table

A=3 (Flow

sensor in

inlet pipe)

T2

V1 and

T1

k-factor for

T2 in

Inlet table

A=4 (Flow

sensor in

outlet pipe)

V1 and

T2

T1

MULTICAL® 801

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Kamstrup A/S · Technical Description · 5512-571_R1_GB_11_2016

5.2 EMC conditions

MULTICAL® 801 has been designed and CE-marked according to EN 1434 Class A and Class C (corresponding to Electromagnetic environment: Class E1 and E2 of the Measuring Instruments Directive) and can thus be installed in both domestic and industrial environments.

All control cables must be drawn separately and not

parallel to e.g. power cables or other cables with the risk of inducing electromagnetic interference. There must be a distance of min. 25 cm between signal cables and other installations.

5.3 Climatic conditions

MULTICAL® 801 has been designed and approved for indoor installation in non-condensing environments with ambient temperatures from 5…55°C.

Furthermore, MULTICAL

®

801 can also be installed in unheated rooms as the instrument is protected by self-

heating.

Protection class IP67 allows short-term submergence, provided that all cable unions have been correctly mounted and that the plastic cover has been properly fastened.

5.4 Electrical installations

See paragraph 10

5.5 Terminal Overview

MULTICAL® 801 has many connection options. The terminals are placed at the bottom of the meter. Additional information can be found in Section 7 (Flow Meter Connection), Section 8 (Temperature Sensors) and Section 9

(Other connections).

MULTICAL® 801

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6 Calculator functions

6.1 Energy calculation

MULTICAL 801 calculates energy based on the formula stated in EN 1434-1:2007, which uses the international

temperature scale issued in 1990 (ITS-90) and the pressure definition of 16 bar.

In a simplified form, the energy calculation can be expressed as Energy = V x ∆Θ x k.

The calculator always calculates energy in [Wh], and then converts the value to the selected measuring unit.

E [Wh] =

V x ∆Θ x k x 1000

E [kWh] = E [Wh] / 1,000

E [MWh] =

E [Wh] / 1,000,000

E [GJ] =

E [Wh] / 277,780

E [Gcal] =

E [Wh] / 1,163,100

V is the added (or simulated) water volume in m

3

. If e.g. the CCC-code = 119 is used, the calculator has been programmed to receive 100 imp./litre. If for instance 10,000 pulses are added, this corresponds to 10,000/100 = 100 litres or 0.1 m

3

.

∆Θ

is he measured temperature difference, e.g. ∆Θ = inlet temperature – outlet temperature. Please note that

different temperatures are used for the calculation of ∆Θ as MULTICAL



801 can calculate various different

energy types. Both in the display and during data reading each energy type is uniquely defined, e.g.

Heat energy: E1 = V1(T1-T2)k

Cooling energy: E3 = V1 (T2-T1)k

k is the heat coefficient of water which is calculated on the basis of the formula stated in EN 1434-1:2007

(identical with the energy formula of OIML R75-1:2002). For checking the measurement, Kamstrup can supply an energy calculator:

MULTICAL® 801

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Kamstrup A/S · Technical Description · 5512-571_R1_GB_11_2016

6.2 Application types

MULTICAL 801 operates with 9 different energy formulas, E1…E9, which are all calculated parallel with each integration, no matter how the meter is configured.

Formula

∆Θ

Example of an application Included in Application No. Register type

E1=V1(T1-T2)k

T1: Inlet / T2: Outlet

T1 > T2 Heat energy (V1 in inlet or outlet pipe) 1+2+3+4+5+6+8 Legal Display/Data/Log

E2=V2(T1-T2)k

T2: Outle t

T1 > T2 Heat energy (V2 in outlet pipe) 2+7

Display/Data/Log

E3=V1(T2-T1)k

T2: Inlet / T1: Outlet

T2 > T1 Cooling energy (V1 in inlet or outlet pipe) 1+10 Legal Display/Data/Log

E4=V1(T1-T3)k

T1: Inlet

T1 > T3 Forwarded energy 7+9+10

Display/Data/Log

E5=V2(T2-T3)k

T2: Inlet

T2 > T3 Returned energy or tap from outlet pipe 5+7+9 Display/Data/Log

E6=V2(T3-T4)k

T3: Inlet

T3 > T4 Tap water energy, separate 3+6 Display/Data/Log

E7=V2(T1-T3)k

T3: Outlet

T1 > T3 Returned energy or tap from inlet pipe 4+8 Display/Data/Log

E8=m3 x T1 - Average temperature in inlet pipe

See paragraph 6.2.2

Display/Data/Log

E9=m3 x T2 - Average temperature in outlet pipe Display/Data/Log

6.2.1 E1…E7

Energy types E1…E7 are described by application examples below.

Application no. 1

Closed thermal system with 1 flow meter

Heat energy: E1 = V1(T1-T2)k

T1:Inlet or T2:Outlet

Cooling energy: E3 = V1(T2-T1)k

T1:Inlet or T2:Outlet

Flow meter V1 is placed in inlet or outlet as selected during PROG.

Mass: M1 = V1 (Kmass t1) or Mass: M1 = V1 (Kmass t2) depending on Inlet/Outlet programming.

Application no. 2

Closed thermal system with 2 identical flow meters

Billing energy: E1 = V1(T1-T2)k

T1:Inlet

Control energy: E2 = V2 (T1-T2)k

T2:Outlet

T3 can be used for checking the measurement of either inlet for outlet temperature, but T3 is not used for calculation.

Mass: M1 = V1 (Kmass t1) Mass: M2 = V2 (Kmass t2)

MULTICAL® 801

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Application no. 3

2-string system with 2 flow meters

Heat energy: E1 = V1(T1-T2)k

T1:Inlet or T 2:Outlet

Tap water energy: E6 = V2 (T3-T4)k

T3:Inlet

T3 is measured or programmed T4 is programmed

Flow meter V1 is placed in inlet or outlet as selected during PROG.

Mass: M1 = V1 (Kmass t1) or Mass: M1 = V1 (Kmass t2) depending on inlet/outlet programming.Mass: M2 = V2 (Kmass t3)*

Application no. 4

2 heating circuits with joint inlet pipe

Heat energy #1: E1 = V1(T1-T2)k

T2:Outlet

Heat energy #2: E7 = V2(T1-T3)k

T3:Outlet

T3 is measured or programmed Mass: M1 = V1 (Kmass t1) Mass: M2 = V2 (Kmass t3)*

Application no. 5

Open system with tapping from outlet pipe

Heat energy: E1 = V1(T1-T2)k

T1:Inlet

Tap water energy: E5 = V2 (T2-T3)k

T2:Inlet

T3 is measured or programmed

Mass: M1 = V1 (Kmass t1) Mass: M2 = V2 (Kmass t2)

MULTICAL® 801

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Kamstrup A/S · Technical Description · 5512-571_R1_GB_11_2016

Application no. 6

Open system with separate flow meter for tapping

Heat energy: E1 = V1(T1-T2)k

T2:Outlet

Tap water energy: E6 = V2 (T3-T4)k

T3:Inlet

T3 is measured or programmed T4 is programmed

Mass: M1 = V1 (Kmass t1) Mass: M2 = V2 (Kmass t3)*

Application no. 7

Open system with 2 flow meters

Forwarded energy: E4 = V1 (T1-T3)k

T1:Inlet

Returned energy: E5 = V2 (T2-T3)k

T2:Inlet

(∆E = E4-E5 cannot be calculated by

MULTICAL® 801)

Heat energy: E2 = V2 (T1-T2)k

T2:Outlet

T3 is measured or programmed

Mass: M1 = V1 (Kmass t1) Mass: M2 = V2 (Kmass t2)

Application no. 8

Hot water boiler with circulation

Total consumption E1 = V1(T1-T2)k

T2:Outlet

Circulated consumption: E7 = V2(T1-T3)k

T3:Outlet

MULTICAL® 801

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37

Application no. 9

2 cooling circuits with joint inlet pipe

Cooling energy #1: E4 = V1 (T1-T3)k

T1:Inlet

Cooling energy #2: E5 = V2 (T2-T3)k

T2:Inlet

Application no. 10

Two-stage boiler system with 1 flow meter

Boiler energy „B“: E3 = V1 (T2-T1)k

T1:Outlet

Boiler energy „A“: E4 = V1(T1-T3)k

T1:Inlet

* M2 = V2 (Kmass t3)* only with delivery codes (930…939)!

MULTICAL® 801

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Kamstrup A/S · Technical Description · 5512-571_R1_GB_11_2016

6.2.2 E8 and E9

E8 and E9 are used as a basis for calculation of volume-based average temperatures in inlet and outlet pipes

respectively. With every integration (every 0.01 m

3

for qp 1.5 m3/h) the registers are accumulated by the product of

m

3

×

°C, which makes E8 and E9 a suitable basis for calculation of volume-based average temperatures.

E8 and E9 can be used for average calculation during any period as long as the volume register is read at the same time as E8 and E9.

E8= m

3

×

tF E8 is accumulated by the product of m

3

×

tF

E9= m

3

×

tR E9 is accumulated by the product of m

3

×

tR

Resolution of E8 and E9

E8 and E9 depend on the resolution of volume (m

3

)

Volume resolution Resolution of E8 and E9

0000.001 m3

m

3

× °C × 10

00000.01 m3

m

3

× °C

000000.1 m3

m

3

× °C × 0,1

0000001 m3

m

3

× °C × 0,01

Example 1 After a year a heating installation has consumed 250.00 m

3

district heating water and the

average temperatures have been 95°C for inlet and 45°C for outlet. E8 = 23750 and E9 = 11250.

Example 2 The average temperatures must be measured together with the yearly reading. Therefore, E8 and E9 are included in the yearly reading.

Date of

reading

Volume E8

Average of inlet

pipe

E9

Average of

outlet pipe

2003.06.01

534.26 m3

48236

18654

2002.06.01

236.87 m3

20123

7651

Yearly

consumption

297.39 m3 28113

28113/297.39

= 94.53°C

11003

11003/297.39

= 36.99°C

Table 1

MULTICAL® 801

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6.3 Calculator with two flow sensors

MULTICAL 801 can be used in various applications with two flow sensors, e.g. leak surveillance or open systems. When two ULTRAFLOW



are direct connected to one MULTICAL 801, a close electric coupling between the two pipes ought to be carried out as a main rule. If the two pipes are installed in a heat exchanger, close to the flow sensors, however, the heat exchanger will provide the necessary electric coupling.

Electric coupling

• Inlet and outlet pipes are closely electrically coupled

• No welded joints occur

In installations where the electric coupling cannot be carried out, or where welding in the pipe system can occur, the cable from one ULTRAFLOW



must be routed through a Pulse Transmitter with galvanic

separation before the cable enters MULTICAL



801.

• Inlet and outlet pipes are not necessarily closely coupled

• Electric welding

*)

can occur

*)

Electric welding must always be carried out with the earth pole closest to the welding point. Our factory

guarantee does not comprise damage to meters due to welding.

MULTICAL® 801

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Kamstrup A/S · Technical Description · 5512-571_R1_GB_11_2016

6.4 Combined heat/cooling metering

MULTICAL® 801 is available as heat meter (meter type 2xx), cooling meter (meter type 5xx) or combined heat/cooling meter (meter type 6xx).

Meter type

Heat meter, closed systems (MID)

2

Heat meter, closed systems

4

Cooling meter

5

Heat/cooling meter

6

Volume meter, hot water

7

Volume meter, cooling water

8

Energy meter, open systems

9

Delivery code (language on label etc.)

XX

If MULTICAL

®

801 has been supplied as a combined heat/cooling meter, heat energy (E1) is measured at

positive temperature difference (T1 > T2) whereas cooling energy (E3) is measured at negative temperature difference (T2 > T1). Temperature sensor T1 (with a red type sign) must be installed in the

hydraulic inlet pipe whereas T2 is installed in the outlet pipe.

The temperature point “T1 limit” is used as a ”filter” for cooling measurement in the way that cooling is only measured when the current inlet temperature T1 is below T1 limit.

T1 limit is configurable in the temperature range 0.01…180.00°C. T1 limit is configured via METERTOOL.

In combined heat/cooling meters T1 limit ought to correspond to the highest occurring inlet temperature in connection with cooling, e.g. 25°C. If the meter is to be used for ”purchase and sale of heat”, T1 limit is adjusted to 180.00°C, which cancels the T1 limit function.

The change between heat and cooling measurement involves no hysteresis (∆T1 limit = 0.00K).

MULTICAL® 801

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6.5 Flow measurement V1 and V2

MULTICAL 801 calculates current water flow according to two different principles depending on the connected flow meter type:

•

Quick volume pulses (CCC > 100)

The current water flow for quick volume pulses, without average determination, is calculated as the number of volume pulses per 10 s multiplied by the scaling factor.

q = (Imp./10 s x flow factor)/65535

[

l/h] or [m3/h]

Example:

- ULTRAFLOW qp 1.5 m

3

/h with 100 imp./l (CCC=119), flow factor = 235926

- Current water flow = 317 l/h, corresponding to 88 Imp./10 s

q = (88 x 235926)/65535 = 316.8, which is displayed as 316

[

l/h]

Current water flow in V1

•

Slow volume pulses (CCC = 0XX)

The current water flow of slow volume pulses (typically from flow meters with reed contact) is calculated without average determination as a scaling factor divided by the duration between two volume pulses.

q = flow factor/(256 x period of time in s)

[

l/h] or [m3/h]

Example:

- Mechanical flow meter Qn 15 qp m

3

/h with 25 l/imp. (CCC=021), flow factor = 230400

- Current water flow = 2.5 m

3

/h, which corresponds to 36 s of the duration between 2 pulses

q = 230400 /(256 x 36) = 25 which is displayed as 2.5

[

l/h]

V1 and V2 must be the same type (either quick (CCC > 100) or slow (CCC=0XX)) but can have different qp-codings

(CCC).

The actual flow rate on the display will be shown a ”0”, when the period between pulses exceed 15 min.

MULTICAL® 801

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Kamstrup A/S · Technical Description · 5512-571_R1_GB_11_2016

6.6 Power measurement, V1

MULTICAL 801 calculates current power based on the current water flow and the temperature difference measured at the latest integration based on the following formula:

P = q (T1 – T2) x k

[kW]

or [MW]

”k” being the heat coefficient of water, which is currently calculated by MULTICAL



801 according to EN 1434:2007.

Example:

- Current water flow, q = 316 l/h and flow meter mounted in outlet pipe

- T1 = 70.00°C and T2 = 30.00°C, k-factor is calculated at 1.156 kWh/m

3

/K

P = 0.316 (70-30) x 1.156 = 14.6

[kW]

Current power in V1

Both heat and cooling power is displayed numerically (without signs)

MULTICAL® 801

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43

6.7 Min. and max. flow and power, V1

MULTICAL 801 registers minimum and maximum flow and power on both monthly and yearly basis. The complete registration can be read via data communication. Furthermore, a few monthly and yearly registers can be read from the display, depending on the selected DDD-code.

The min. and max. registrations include the following flow and power values with indication of date:

Type of registration

Max. data Min. data Yearly data Monthly data

Max. this year (since latest target date)

•

Max. yearly data, up to latest 15 years

•

Min. this year (since latest target date)

• •

Min. yearly data, up to latest 15 years

• •

Max. this month (since latest target date)

•

Max. monthly data, up to latest 36 months

•

Min. this month (since latest target date)

•

Min. monthly data, up to latest 36 months

•

All max. and min. values are calculated as biggest and smallest average of a number of current flow or power measurements respectively. The average period used for all calculations can be selected in the interval 1...1440 min. in 1 min. leaps. 1.440 min. = 24 hours).

Average period and target date must be stated in the order, or be reconfigured by means of METERTOOL. In the absence of other information with the order, the average period is set to 60 min. and the target date to the standard value applying to the delivery code used.

At the end of a year and a month the max. and min. values are saved in the data logger, and the current max. and min. registers are “reset” according to the selected target date and the meter’s internal clock and calendar.

”Reset” is made by setting the max. value to zero and the min. value to 10000,0 kW at e.g. CCC=119.

If the max. or min. registration is used for accounting purposes, we recommend that the clock setting is checked in connection with the installation as well as once a year. Furthermore, the back-up battery of MULTICAL



801 ought

to be replaced at intervals of max. 10 years.

Date of year-to-date max.

Value of year-to-date max.

Date of this month’s min.

Value of this month’s min.

MULTICAL® 801

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Kamstrup A/S · Technical Description · 5512-571_R1_GB_11_2016

6.8 Temperature measurement

MULTICAL 801 is fitted with a high-resolution analog/digital converter, which measures the temperatures T1, T2

and T3 with a resolution of 0.01°C. The same measuring circuit is used for all three temperature inputs in order to obtain the lowest possible measuring error of the temperature difference. Prior to each temperature measurement, the internal measuring circuit is automatically adjusted based on built-in reference resistors at 0°C and 100°C respectively. Very accurate measurements and an almost immeasurable long-term stability is hereby obtained.

Current T1

MULTICAL



801 measures all temperatures every 10 seconds if supply voltage is connected. If the supply voltage is disconnected and the meter is driven by the backup battery, temperature measurements are carried out with every integration (energy calculation), not at shorter intervals than 10 s however.

The temperature range of the measuring circuit is 0.00°C…185.00°C. For disconnected temperature sensor,

200.00°C is shown and for short-circuited temperature sensor 0.00°C is displayed. In both cases the info code for sensor error will appear.

In order to reduce the influence of hum, which can e.g. be picked up in long sensor cables, double measurements with a timing difference of half a period of time are carried out, and the average of the two measurements is the temperature measurement used for calculation and the one displayed. The hum suppression is optimized to either 50 Hz or 60 Hz depending on the selected country code.

6.8.1 Measuring current and power

Measuring current is only sent through the temperature sensors during the short duration of the temperature measurement. The effective power which is deposited in the sensor elements is thus very small, and its influence on the self-heating of the temperature sensors is typically less than 1/1000 K.

Pt100 Pt500

Measuring current

< 3 mA

< 0.5 mA

Peak power

<

1.5 mW

<

0.2 mW

RMS influence

<

10 µW

<

1 µW

MULTICAL® 801

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45

6.8.2 Average temperatures

MULTICAL



801 currently calculates the average temperatures of inlet and outlet pipes (T1 and T2) in °C without

decimals, and the background calculations E8 and E9 (m

3

x T1 and m3 x T2) are carried out with every energy

calculation (e.g. with every 0.01 m

3

if the meter size is qp 1.5), whereas the display is updated every 24 hours. The

average temperatures are thereby volume weighted and can, therefore, be used for check purposes directly.

Type of registration

Average Yearly data Monthly data

Year-to-date average (since latest target date)

• •

Month-to-date average (since latest target date)

•

Year-to-date average for T1

(Current date with a stipulated line under year or month is shown immediately BEFORE this reading)

6.8.3 Preprogrammed temperatures

Temperatures T3 and T4 can be programmed into the calculator’s memory, whereby these temperatures can be used for energy calculation with fixed temperature reference, as used in the calculations of the energy types E4, E5, E6 and E7 (see application drawings in paragraph 6.2)

The temperatures can be entered from the factory or by means of METERTOOL, in the range 0.01…180°C, after installation.

MULTICAL® 801

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6.9 Display functions

MULTICAL 801 is fitted with an easily readable LC-display, including 8 digits, measuring units and information field. For energy and volume indication 7 digits (8 digits, however, for programming the biggest flow meter types) and the corresponding measuring units are used, whereas 8 digits are used for indication of e.g. meter number and serial number. Basically, accumulated energy is displayed. Activating the pushbuttons, the display reacts at once by calling up other indications. The display automatically returns to energy indication 4 minutes after the latest activation of the pushbuttons.

6.9.1 Primary and secondary indications

The top pushbutton is used to change between the primary indications. Consumers normally use the first primary indications in connection with self-reading for billing purposes.

The bottom pushbutton is used to collect secondary information on the primary indication selected.

Example: If the selected primary indication is ”heat energy”, the secondary indications will be yearly data and monthly data for heat energy.

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Heat energy E1 in MWh

Yearly data, date of LOG1 (latest yearly reading)

Yearly data, value of LOG1 (latest yearly reading)

Monthly data, date of LOG1 (latest monthly reading)

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6.9.2 Display structure

The below-mentioned diagram shows the display structure with up to 20 primary readings as well as a series of secondary readings under most primary indications. The number of secondary readings in connection with yearly and monthly data has been determined under the DDD-code. In the absence of other information with the order, readings will consist of 2 yearly data and 12 monthly data. The target date will be the standard date applying to the delivery code used.

As the display is configured to the customer’s need (selecting the DDD-code) the display will most frequently

include much fewer indications than listed below.

Figure 2

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6.9.3 Display grouping

MULTICAL



801 can be configured for many different applications, which creates the need for different display

groups. The table below includes possible

indications [•] of heat meters, cooling meters etc., indications

supported by date stamp as well as the indications, to which the display automatically reverts 4 min. after the latest activation of the pushbuttons [1•]. (The paragraph is only used for creation of DDD-codes).

Date Stamp

Heat meter

DDD=4xx Cooling meter

DDD=5xx Heat/cooling

DDD=6xx Heatvolume

DDD=7xx Cold volume

DDD=8xx Heat meter

DDD=9xx

1.0

Heat energy (E1)

1 • 1 •

• 1.1

Yearly data

•

• •

•

1.2

Monthly data

•

• •

• 2.0

Cooling energy (E3)

1 •

•

• 2.1

Yearly data

• •

•

2.2

Monthly data

• •

•

• 3.X

Other energy types

3.1

E2 • 3.2

E4 • 3.3

E5

•

3.4

E6 • 3.5

E7

•

3.6

E8 (m3*tf)

•

• 3.7

E9 (m3*tr)

•

• 4.0

Volume V1

• • •

1 •

•

4.1

Yearly data

• • • • • • •

4.2

Monthly data

• • • • • • •

4.3

Mass 1

• • • • •

•

4.4

P1

• • • • •

•

5.0

Volume V2

• • •

5.1

Yearly data

•

• • •

5.2

Monthly data

•

• • •

5.3

Mass 2

• • •

5.4

P2

• • •

6.0

Hour counter

• • • • •

•

7.0

T1 (Inlet)

• • •

•

7.1

Year-to-date average

• • •

• 7.2

Month-to-date average

• • •

• 8.0

T2 (Outlet)

• • •

• 8.1

Year-to-date average

• • •

•

8.2

Month-to-date average

• • •

•

9.0

T1-T2 (∆t) - = cooling

• • •

•

10.0

T3

• • •

• 11.0

T4 (prog.)

•

12.0

Flow (V1)

• • • • •

•

12.1

This year’s max.

• • • • • • •

12.2

Max. yearly data

• • • • • • •

12.3

This year’s min.

• • • • • • •

12.4

Min. yearly data

• • • • • • •

12.5

This month’s max.

• • • • • • •

12.6

Max. monthly data

• • • • • • •

12.7

This month’s min.

• • • • • • •

12.8

Min. monthly data

• • • • • • •

13.0

Flow (V2)

•

• • •

14.0

Power (V1)

• • •

• 14.1

This year’s max.

• • •

•

14.2

Max. yearly data

• • •

•

• 14.3

This year’s min.

• • •

•

• 14.4

Min. yearly data

• • •

•

• 14.5

This month’s max.

• • •

•

• 14.6

Max. monthly data

• • •

•

14.7

This month’s min.

• • •

•

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14.8

Min. monthly data

• • •

•

Date Stamp

Heat meter

DDD=4xx Cooling meter

DDD=5xx Heat/cooling

DDD=6xx Heatvolume

DDD=7xx Cold volume

DDD=8xx Heat meter

DDD=9xx

15.0

VA (Input A)

• • • • •

•

15.1

Meter No. VA

• • • • •

•

15.2

Yearly data

• • • • • • •

15.3

Monthly data

• • • • • • •

16.0

VB (Input B)

• • • • •

•

16.1

Meter No. VB

• • • • •

•

16.2

Yearly data

• • • • • • •

16.3

Monthly data

• • • • • • •

17.0

TA2

• • •

17.1

TL2

•

18.0

TA3

• • •

18.1

TL3

•

19.0

Info Code

• • • • •

•

19.1

Info event counter

• • • • •

•

19.2

Info logger (36 latest events)

• • • • • • •

20.0

Customer No. (No 1+2)

• • • • • •

20.1

Date

• • • • •

•

20.2

Hour

• • • • •

•

20.3

Target date

• • • • •

•

20.4

Serial no. (No 3)

• • • • •

•

20.5

Prog. (A-B-CCC-CCC) (No 4)

• • • • •

•

20.6

Config 1 (DDD-EE) (No 5)

• • • • •

•

20.7

Config 2 (FF-GG-M-N) (No 6)

• • • • •

•

20.8

Software edition (No 10)

• • • • •

•

20.9

Software check sum (No 11)

• • • • •

•

20.10

Segment test

• • • • •

•

20.14

Module type 1 (No 30)

• • • • •

•

20.15

Module 1 primary adr. (No 31)

• • • • •

•

20.16

Module 1 secondary adr. (No32)

• • • • •

•

20.17

Module type 2 (No40)

• • • • •

•

20.18

Module 2 primary adr. (No41)

• • • • •

•

20.19

Module 2 secondary adr. (No42)

• • • • •

•

20.20

External module type

(No50)

• • • • •

•

20.21

External module, primary adr.

(No51)

• • • • •

•

20.22

External modulesecondary adr.

(No52)

• • • • •

•

A total survey of existing display codes (DDD) appear from a separate document. Please contact Kamstrup for further details.

Display example showing

the PROG number.

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6.10 Info codes

MULTICAL 801 constantly monitors a series of important functions. If there is a serious error in measuring system or installation, a flashing “info” will appear in the display until the error has been corrected. The ”Info” field flashes as long as the error exists, no matter which reading you choose. The ”Info” field automatically disappears when the reason for the error has been removed.

6.10.1 Examples of info codes in the display

Example: 1

Flashing ”info”

If the information code exceeds 000, a flashing “info” will appear in the information field.

Example: 2

Current information code

Activating the top (primary) pushbutton several

times, the current information code is displayed

Example: 3

Info event counter

- shows how many times

the information code has

been changed.

Example: 4

Info logger

Pushing the bottom pushbutton once more, the data logger for information code is displayed. First, the date of the latest change is shown…

…then the information code set on this dat

e is

displayed. In this case it has been a ”burst alarm” on 1 June 2012.

The data logger saves the latest 50 changes. 3The latest 36 changes can be displayed. All 50 changes can be read by means of LogView.

Furthermore, the info code is saved in the programmable logger, in the daily logger, in the monthly logger and in the yearly logger for diagnosis purposes.

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6.10.2 Info code types

Info Code Description Response time

0 No irregularities -

1 Supply voltage has been interrupted -

8

Temperature sensor T1 outside measuring range

1…10 min

4

Temperature sensor T2 outside measuring range

1…10 min

32

Temperature sensor T3 outside measuring range

1…10 min

64 Leak in cold water system 24 hours

256 Leak in heating system 24 hours

512 Burst in heating system 120 s.

ULTRAFLOW

®

X4 info (activated when CCC=4XX)

16 Flow meter V1 communication error After reset and 24 hours (at 00:00)

1024 Flow meter V2 communication error After reset and 24 hours (at 00:00)

2048 Flow meter V1 wrong pulse figure After reset and 24 hours (at 00:00)

128 Flow meter V2 wrong pulse figure After reset and 24 hours (at 00:00)

4096 Flow meter V1, signal too weak (air) After reset and 24 hours (at 00:00)

8192 Flow meter V2, signal too weak (air) After reset and 24 hours (at 00:00)

16384 Flow meter V1 wrong flow direction After reset and 24 hours (at 00:00)

32768 Flow meter V2 wrong flow direction After reset and 24 hours (at 00:00)

If several info codes appear at the same time, the sum of the info codes is displayed. If e.g. both temperature sensors are outside measuring range, info code 12 is displayed.

During factory configuration, the individual info codes are set active or passive, meaning that a standard heat meter that does not use T3 cannot set info code 32.

Info = 16-1024-2048-128-4096-8192-16384-32768 functions via data communication between MULTICAL

®

and

ULTRAFLOW

®

54. See paragraph14.2.5, Info code setup, in order to change the settings.

6.10.3 Transport mode

When the meter leaves the factory it is in transport mode, whereby the info codes are active in the display only, not in the data logger. This prevents ”infoevent” from counting during transportation and non-relevant data from appearing in the info logger. When the meter has accumulated the volume register the first time after the installation, the info code automatically becomes active.

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6.10.4 Info event counter

Info event counter

Increment with each change of the info code.

The info event counter of a new meter will be 0 as

“transport mode” prevents counting during transportation.

Info code

”info” in

display

Registration in info, daily,

monthly or yearly logger

Counting of Info event

1

Yes Yes With each “main power” On/Off

4, 8, 32

Yes Yes

When Info 4, 8, 32 is set or removed.

Max. 1 per temperature measurement

64, 256

Yes Yes

When Info is set and when Info is

deleted.

Max. once a day

512

Yes Yes

When Info is set and when Info is

deleted.

Max. once every 120 s.

16, 128, 1024, 2048, 4096, 8192, 16384, 32768

Yes Yes

When Info is set and when Info is

deleted.

Max. once a day

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6.11 Tariff functions

MULTICAL 801 has 2 extra registers TA2 and TA3, which can accumulate heat energy (EE=20 accumulates volume) parallel with the main register, based on a programmed tariff condition. Irrespective of the selected tariff form, the tariff registers are named TA2 and TA3 in the display. The tariff function can only be used for heat energy (E1).

The main register is always accumulated as it is considered legal billing register, no matter the selected tariff function. Tariff conditions TL2 and TL3 are monitored with each integration. If the tariff conditions are fulfilled, consumed heat energy is accumulated in either TA2 or TA3 parallel with the main register.

2 tariff conditions, TL2 and TL3, which are always used in the same tariff type, are connected to each tariff function. However, it is not possible to “mix” two tariff types.

Example: EE=11 (Power tariff)

TA2 shows energy consumed…

…above power limit TL2 (but below TL3)

Main register

TA2

TA3

0

10

20

30

40

50

60

1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20 21 22 23 24 25 26 27 28 29 30

Power (kW)

Integrations

Power tariff

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6.11.1 Tariff types

The below-mentioned table lists the tariff types, for which MULTICAL



801 can be configured:

EE= TARIFF TYPE FUNCTION

00 No active tariff

No function

11 Power tariff

Energy is accumulated in TA2 and TA3 based on the power limits programmed for TL2 and TL3.

12 Flow tariff

Energy is accumulated in TA2 and TA3 based on the flow limits programmed for TL2 and TL3.

13 T1-T2 tariff

Energy is accumulated in TA2 and TA3 based on the ∆t-limits programmed for TL2 and TL3.

14

Inlet temperature tariff

Energy is accumulated in TA2 and TA3 based on the tF-limits programmed for TL2 and TL3.

15

Outlet temperature tariff

Energy is accumulated in TA2 and TA3 based on the tR-limits programmed for TL2 and TL3.

19

Time controlled tariff

TL2=Start time for TA2 TL3=Start time for TA3

20

Heat/cooling volume tariff (TL2 and TL3 are not used)

Volume (V1) is divided into TA2 for heat (T1>T2) and TA3 for cooling (T1<T2) provided that T1 is below T1 limit.

21 PQ-tariff

Energy if P>TL2 is saved in TA2 and energy if Q>TL3 is saved in TA3

EE=00 No active tariff

If the tariff function is not going to be used, select the setup EE=00.

The tariff function can, however, at a later stage be made active by means of reconfiguration with METERTOOL for MULTICAL



801. See section 14 METERTOOL.

EE=11 Power controlled tariff

If the current power exceeds TL2 but is lower than or equal to TL3, heat energy is counted in TA2 parallel to the main register. If the current power exceeds TL3, heat energy is counted in TA3 parallel to the main register.

P ≤ TL2

Accumulation in main register only

TL3 > TL2

TL3 ≥ P > TL2

Accumulation in TA2 and main register

P > TL3

Accumulation in TA3 and main register

Setting up data TL3 must always include a higher value than TL2. The power-controlled tariff is e.g. used as a basis for the individual heat consumer’s connection fee. Furthermore, this tariff type can provide valuable statistical data if the heating station considers new construction activities.

EE=12 Flow controlled tariff

If the current water flow exceeds TL2 but is lower than or equal to TL3, heat energy is counted in TA2 parallel to the main register. If the current water flow exceeds TL3, heat energy is counted in TA3 parallel to the main register. Setting up data TL3 must always include a higher value than TL2.

q ≤ TL2

Accumulation in main register only

TL3 > TL2

TL3 ≥ P > TL2

Accumulation in TA2 and main register

q > TL3

Accumulation in TA3 and main register

The flow controlled tariff is e.g. used as a basis for the individual heat consumer’s connection fee. Furthermore, this tariff type can provide valuable statistical data if the heating station considers new construction activities.

If either power or flow tariff is used you obtain an overview of the total consumption compared to the part of the consumption used above tariff limit.

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EE=13 T1-T2 tariff (∆t)

If the current T1-T2 (∆t) is lower than TL2 but exceeds TL3, heat energy is counted in TA2 parallel to the main register. If the current cooling falls below or is equal to TL3, heat energy is counted in TA3 parallel with the main register.

∆t ≥ TL2

Accumulation in main register only

TL3 < TL2

TL3 < ∆t < TL2

Accumulation in TA2 and main register

∆t ≤ TL3

Accumulation in TA3 and main register

Setting up tariff limits TL3 must always be lower than TL2.

The T1-T2 tariff can be used as a basis for weighted user charge. Low ∆t (small difference between inlet and outlet temperatures) is uneconomical for the heat supplier.

EE=14 Inlet tariff

If the current inlet temperature (T1) exceeds TL2 but is lower than or equal to TL3, heat energy is counted in TA2 parallel to the main register. If the current inlet temperature exceeds TL3, heat energy is counted in TA3 parallel to the main register.

T1 ≤ TL2

Accumulation in main register only

TL3 > TL2

TL3 ≥ P > TL2

Accumulation in TA2 and main register

T1 > TL3

Accumulation in TA3 and main register

Setting up data TL3 must always include a higher value than TL2.

The inlet temperature tariff can be used as a basis for billing consumers who are guaranteed a certain inlet temperature. If the “guaranteed” minimum temperature is entered as TL3, the payable consumption is accumulated in TA3.

EE=15 Outlet temperature tariff

If the current outlet temperature (T2) exceeds TL2 but is lower than or equal to TL3, heat energy is counted in TA2 parallel to the main register. If the current outlet temperature exceeds TL3, heat energy is counted in TA3 parallel to the main register.

T2 ≤ TL2

Accumulation in main register only

TL3 > TL2

TL3 ≥ T2 > TL2

Accumulation in TA2 and main register

T2 > TL3

Accumulation in TA3 and main register

Setting up data TL3 must always be bigger than TL2.

The outlet temperature tariff can be used as a basis for weighted user charge. A high outlet temperature indicates insufficient heat utilization, which is uneconomical for the heat supplier.

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EE=19 Time-controlled tariff

The time-controlled tariff is used for time division of the heat consumption. If TL2 = 08:00 and TL3 = 16:00, the daily consumption from 8 a.m. to 4 p.m. is accumulated in TA2, whereas the consumption during the evening and night from 16:01 to 07:59 will be accumulated in TA3.

TL2 must include a lower hour value than TL3.

TL 3 ≥ Clock ≥ TL2

Accumulation in TA2 and main register

TL3 > TL2

TL 2 > Clock > TL3

Accumulation in TA3 and main register

The time tariff is suitable for billing in housing areas close to industrial areas with large district heating consumption as well as billing industrial customers.

The adjustment of the clock ought to be checked in order to secure correct time as a basis for the time tariff.

EE=20 Heat/cooling volume tariff

Heat/cooling volume tariff is used for division of volume into heat and cooling consumption. TA2 accumulates the volume consumed together with E1 (heat energy) and TA3 accumulates the volume consumed together with E3 (cooling energy).

T1 ≥ T2

Volume is accumulated in TA2 and V1

TL2 and TL3 are

not used

T2 > T1 and T1 < T1 limit

Volume is accumulated in TA3 and V1

T2 > T1 and T1 > T1 limit

Volume is accumulated in TA2 and V1

For combined heat/cooling metering the total volume is accumulated in the register V1, whereas heat energy is accumulated in E1 and cooling energy in E3. The heat/cooling tariff is used for dividing the consumed volume into heat and cooling volume.

EE=20 ought always to be selected together with heat/cooling meters, type 67-xxxxxxx-6xx.

EE=21 PQ tariff

The PQ tariff is a combined power and flow tariff. TA2 functions as power tariff and TA3 functions as flow tariff.

P ≤ TL2 and q ≤ TL3

Accumulation in main register only

TL2 = power limit (P)

TL3 = flow limit (q)

P > TL2

Accumulation in TA2 and main register

q > TL3

Accumulation in TA3 and main register

P > TL2 and q > TL3

Accumulation in TA2, TA3 and main

register

The PQ tariff can e.g. be used for customers paying a fixed charge based on max. power and max. flow.

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6.12 Data loggers

MULTICAL 801 includes a permanent memory (EEPROM), in which the values from various data loggers are saved. The meter includes the following data loggers:

Data logging interval Data logging depth Logged value

Yearly logger 15 years Counter register

•

Monthly logger 36 months Counter register

•

- Daily logger 460 days and nights

Consumption (increase)/day

♦

Programmable data logger

1080 loggings

(e.g. 45 days' hour loggings or

11 days’ 15 min. loggings)

30 registers and values

•

Info logger 50 Events (36 Events can be displayed) Info code and date

The loggers are static ones and the register types can, therefore, not be changed, the same applies to the logging intervals. When the last record has been written into the EEPROM the oldest one will be overwritten.

6.12.1 Yearly, monthly, daily loggers

The following registers are logged every year and every month on target date as counter values. Furthermore, the increases of day and hour are logged at midnight.

Register type Description

Yearlylogg

er

Monthly

logger

Daily

logger

Prog.

logger

Date (YY.MM.DD)

Year, month and day for logging time

• •

♦

•

Clock (hh.mm.ss.) Time

-

•

Log Info Status, quality stamping of log record

-

•

E1

E1=V1(T1-T2)k Heat energy

• •

♦

•

E2

E2=V2(T1-T2)k Heat energy

• •

♦

•

E3

E3=V1(T2-T1)k Cooling energy

• •

♦

•

E4

E4=V1(T1-T3)k Forwarded energy

• •

♦

•

E5

E5=V2(T2-T3)k Returned energy or tap from outlet pipe

• •

♦

•

E6

E6=V2(T3-T4)k Tap water energy, separate

• •

♦

•

E7

E7=V2(T1-T3)k Returned energy or tap from inlet pipe

• •

♦

•

E8

E8=m3 x T1 (inlet)

• •

♦

•

E9

E9=m3 x T2 (outlet)

• •

♦

•

TA2

Tariff register 2

• •

-

TA3

Tariff register 3

• •

-

V1

Volume register for Volume 1

• •

♦

•

V2

Volume register for Volume 2

• •

♦

•

VA

Extra water or electricity meter connected to Input A

• •

♦

•

VB

Extra water or electricity meter connected to Input B

• •

♦

•

M1

Mass corrected V1

- -

♦

•

M2

Mass corrected V2

- -

♦

•

INFO

Information code

• •

♦

•

DATE FOR MAX. FLOW V1 Date stamp for max. flow during period

• •

-

MAX. FLOW V1

Value of max. flow during period

• •

-

DATE FOR MAX. FLOW V1 Date stamp for min. flow during period

• •

-

MIN. FLOW V1

Value for min. flow during period

• •

-

DATE FOR MAX. POWER V1 Date stamp for max. power during period

• •

-

MAX. POWER V1

Value of max. power during period

• •

-

DATE FOR MAX. POWER V1 Date stamp for min. power during period

• •

-

MIN. POWER V1

Value for min. power during period

• •

-

T1avg

Time average of T1

- -

♦

-

T2avg

Time average of T2

- -

♦

-

T3avg

Time average of T3

- -

♦

-

P1avg

Time average of P1

- -

♦

-

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P2avg

Time average of P2

- -

♦

-

Operating hour counter

Accumulated number of operating hours

- -

-

•

T1

Current value of T1

- -

-

•

T2

Current value of T2

- -

-

•

T3

Current value of T3

- -

-

•

T4

Current value of T4

- -

-

•

T1-T2 (∆t)

Current differential value

- -

-

•

Flow (V1)

Current water flow of V1

- -

-

•

Flow (V2)

Current water flow of V2

- -

-

•

Power (V1)

Actual power

- -

-

•

P1

Current pressure of inlet

- -

-

•

P2

Current pressure of outlet

- -

-

•

Note: Continuous maximum water flow and permanent ∆Θ > 75 K may cause overflow in the daily data logger at CCC=010-011-012-013-150-202-205-206. With these combinations, we recommend you to use the built-in Prog.

data logger.

6.12.2

6.12.3 Info logger

Every time the information code is changed date and info code are logged. Thus, it is possible, via METERTOOL, to read the latest 50 changes of the information code as well as the date the change was made.

Register type Description

Date (YY.MM.DD)

Year, month and day of logging time

info

Information code on above date

When the info logger is read in the display the latest 36 changes including dates can be read.

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6.13 Leak surveillance

6.13.1 District heating system

The leak surveillance system is primarily used for direct connected district heating systems, i.e. systems without exchangers between the district heating network and the heating system of the house. The surveillance equipment consists of two ultrasonically based water meters placed in inlet and outlet pipe respectively as well as temperature sensors in both pipes. Furthermore, the electronic unit of MULTICAL



801, which calculates the heat energy, also

monitors the mass difference (temperature corrected volume) which can be found between inlet and outlet pipe.

If a difference that exceeds 20 % of the measuring range (corresponding to 300 l/h for a single-family house) is registered, an alarm will be sent within 120 s via remote communication.

Small leaks from 15 kgs/h and upwards for qp 1.5 m

3

/h are monitored on the basis of daily average in order to

exclude erroneous alarms due to air pockets and quick flow changes from e.g. hot water exchangers.

District heating leak surveillance (V1-V2)

M=

Sensitivity of leak search

0

OFF 1 1.0 % qp + 20 % q

2

1.0 % qp + 10 % q

3

0.5 % qp + 20 % q

4

0.5 % qp + 10 % q

Note: M=2 is the default value when leak surveillance is used. Increased sensitivity, e.g. M=4, can only be achieved by means of METERTOOL.

Info codes for leakage/burst are only active when M > 0 or N > 0 respectively.

Tap water meter

with pulse output

For radiators and

tank/exchanger

District heating

connection

Cold water-

connection

Ultrasonic meters in

flow and outlet

MULTICAL



heat meter with

remote reading

(e.g. integral radio module)

Main tap

Tap

Shut-off valves

Check valve

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61

Example: The below graph illustrates the difference between Mass V1 and Mass V2 during 60 days before the leakage of an under-floor heating pipe caused a leak alarm. During the first 43 days, there is fluctuation of approx. ± 1 kg/h, which is the normal fluctuation of systems without leaks.

-2

0

2

4

6

8

10

12

14

16

400 410 420 430 440 450 460

Number of days

Leakage in kgs/hour

-2

0

2

4

6

8

10

12

14

16

400

410

420

430

440

450

460

Number of days

Leakage in kgs/hour

6.13.2 District heating burst

Every 30 seconds the current flow of the inlet pipe is compared to that of the outlet pipe. If the difference exceeds 20 % of the nominal flow at four successive measurements (120 s), info = 00512 is set and a ”burst alarm” is sent via remote communication.

6.13.3 Cold water systems

In addition to the above-mentioned functions, MULTICAL



801 can be connected to the pulse signal from the coldwater meter of the house. It can thus monitor the cold-water consumption. Possible running cisterns, untight heating spirals of tap water tanks or other untightnesses will cause pulses to be received from the cold water meter 24 hours a day. If MULTICAL



801 does not register, e.g. at least one continuous hour/day without pulses from the water meter, this

implies a leakage in the water system and an alarm will be sent via remote communication.

Cold water leak surveillance (VA)

N=

Constant leakage at no consumption (pulse

resolution 10 l/imp)

0

OFF 1 20 l/h (30 min. without pulses)

2

10 l/h (1 hour without pulses)

3

5 l/h (2 hours without pulses)

Note: N=2 is the default value in connection with leak surveillance. Increased sensitivity, e.g. N=3, can only be achieved by means of METERTOOL. Info codes for leakage/burst are only active when M > 0 eller N > 0 respectively.

6.13.4 Receipt of alarm messages

When the meter has registered a leak or burst, it sends an alarm message to a receiving station, where incoming alarms are processed according to an encoded action pattern, which is determined for each customer, e.g. starting with an SMS message to the customer’s mobile phone parallel with the heating station on guard receiving the message. Regular data readings from MULTICAL



801 to receiving station/control centre ensure that defective

remote readings, if any, are detected.

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6.13.5 Surveillance, but no automatic blocking

The leak surveillance system is based on installation at a big number of private district heating customers. Normally the individual district heating stations install and maintain leak surveillance as an integral part of the compulsory heat metering of all district heating customers in their area. Therefore, the individual private district heating

customers need not take care of maintenance or other task of technical character in connection with the installed leak surveillance system, and the surveillance system must not involve increased risk of erroneous closing, which may lead to frost burst. Due to this fact, the stability and reliability of the complete system must make 12 years operation without further maintenance possible. As neither thermically or electrically activated closing valves can be expected to have so long a lifetime it is not possible to use automatic closing.

6.13.6 First day after reset

The first day after the installation (the meter having been without supply voltage), no info codes will be sent or

alarms set in case of a calculated district heating or cold water leak.

This limitation has been introduced in order to avoid erroneous alarms due to the installation and the shortened measuring period.

The alarm function can be tested via remote communication by pressing both pushbuttons at a time until “Call” is displayed.

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6.14 Reset functions

6.14.1 Resetting the hour counter

The operating hour counter can be reset in connection with e.g. change of backup battery.

As the hour counter is often used to check whether the meter has been in operation during the whole billing period (e.g. 1 year = 8760 hours) the district heating supplier must always be informed, inwhich meters the hour counter has been reset

In order to reset the operating hour counter switch off the supply voltage and disconnect the backup battery, then wait until the display goes blank.

Connect the backup battery whilst activating the top pushbutton for min. 10 s until e.g.

energy is displayed.

Do not forget to switch on the supply voltage again. The operating hour counter has

been reset.

6.14.2 Resetting data loggers

Separate reset of data loggers, info loggers, max. & min. logger (without resetting the legal registers) can only be carried out by means of METERTOOL. See paragraph 14 for further information.

6.14.3 Reset of all registers (total reset)

All legal and non-legal registers, including all data loggers, info logger, max. & min. logger can be reset by means of METERTOOL or a short-circuit pen if the verification seal is broken and the internal “total programming lock” is short-circuited.

Important! As the verification seal is broken, competent laboratories/utility companies with authorization to reseal the meter must carry out this reset!

The following registers are reset: All legal and non-legal registers, including all data loggers, info logger, max. and min. logger (max. values are set to zero, whereas min. values are set to 100000).

Note: ”Date” is after reset set to 2000.01.01 and subsequently changed to current date/time from the PC used for the task. Therefore, do not forget to check correct date/time (technical normal time = ”winter time”) of the PC before starting the reset function via METERTOOL.

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6.14.4 Reset of all registers (with short-circuit pen)

The supply voltage (230 VAC or 24 VAC) is switched off, but the backup battery must be in working order. A shortcircuit pen (type: 66-99-278) is used to break the seal and short-circuit the two contact points for approx. 10 s, until CLR is displayed.

Figure 3

The short-circuit pen functions in >back-up mode< as ”Total reset” and >with supply voltage< as ”Total Prog”

Do not forget to switch on the supply voltage again.

Note: ”Date” is after reset set to 2000.01.01. Therefore, do not forget to adjust date/time via hand-held terminal or PC with METERTOOL if correct time is important for the application in question.

6.15 SMS commands

MULTICAL® 801 can be read by means of an SMS. In order to do so, a GSM-module fitted with a SIM-card must be mounted in the meter (see paragraph 11.1.5). You send an SMS from a mobile phone direct to the meter.

Subsequently, you receive a reply with the following values:

• Acc. energy: [kWh], [MWh], [GJ] or [Gcal]

• Current power: [kW] or [MW]

• Hour counter

• Meter number

It is also possible to read the modem’s signal strength by means of an SMS. You receive a reply with the modem’s current signal strength on a scale of 0 to 31, the best value being 31. The signal strength must be minimum 12. See the examples on the next page.

NOTE: SMS commands must be written in either capital letters or small letters, i.e. an SMS command must not include a mixture of capital and small letters.

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READ_HEAT_METER – for reading a MULTICAL ® 801

Syntax

=READ_HEAT_METER#

Return reply, error

NO ANSWER

Example of SMS command

=READ_HEAT_METER#

Example of correct reply

12.067Gj, 120.0kW 6930 Hours, Meter No.: 6055524

SIGNAL – for reading the signal strength

Syntax, command

=SIGNAL#

Return reply, error

NO ANSWER

Example of SMS command

=SIGNAL#

Example of correct reply

Signal: 16(0-31)

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7 Flow meter connection

MULTICAL 801 can be used with up to 4 pulse inputs, of which V1 and V2 are used for energy calculation and leak surveillance, whereas VA and VB are used to accumulating pulses from e.g. cold water meters and electricity meters.

V1 and V2 can either be used for quick pulses (CCC > 100) or slow pulses (CCC = 0XX). Quick and slow pulses cannot be used at a time.

7.1 Volume inputs V1 and V2

MULTICAL 801 can be connected with one or two flow sensors, depending on the required application. Typical heating installations with one flow sensor are always connected to V1, no matter if this flow sensor is installed in inlet or outlet pipe.

Almost all available flow sensor types with pulse output can be connected as the standard connection circuit can receive pulses from both electronic and mechanical meters.

7.1.1 Flow sensor with transistor or FET output



The signal transmitter is normally an optocoupler with transistor or FET output. V1 is connected to terminals 10(+) and 11(-), V2 is connected to terminals 69(+) and 11(-). Terminal 9 is not used in this application.

The leak current of transistor or FET output must not exceed 1µA in OFF-state and it must be max. 0.4 V in ON-state.

A suitable CCC-kode with the same number of imp./litre as the flow sensor must be selected and for this flow meter type the CCC-code must be CCC > 100.

Example: CCC=147 is suitable for an electronic meter with 1 imp./litre and qp 150 m

3

/h.

7.1.2 Flow sensor with reed contact output



The transmitter is a reed contact, which is normally mounted on vane wheel and Woltmann meters, or a relay output from e.g. a magnetic inductive flow sensor. V1 is connected to terminals 10(+) and 11(-), V2 is connected to terminals 69(+) and 11(-). Terminal 9 is not used in this application.

The leak current must not exceed 1µA in OFF state and it must be max 10 kΩ in ON-state.

A suitable CCC-code with the same number of litres/imp as the flow sensor must be selected and for this flow meter type the CCC-code must be in the area 010 ≤ CCC ≤ 022.

Example: CCC=012 is suitable for a mechanical flow meter with 100 litres/imp. Flow sensors with Qmax. in the range of 10…300 m

3

/h can use this CCC-code.

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7.1.3 Flow sensor with active output, supplied through MULTICAL





This connection is used together with both Kamstrup’s ULTRAFLOW and Kamstrup’s electronic pick-up units for vane wheel meters. The current consumption of these units is very low and furthermore adapted to the battery lifetime of MULTICAL



.

A suitable CCC-code with the same number of imp/litre as the flow sensor must be selected and for this flow meter type the CCC-code must be CCC > 100.

Example: CCC=119 suits an electronic meter with 100 imp/litre and normally qp 1.5 m

3

/h.

V1 and V2 are connected as shown in the table below.

V1

V2

Red (3.6 V)

9

Yellow (signal)

10

69

Blue (GND)

11

Table 2

7.1.3.1 Use of Pulse Transmitter between ULTRAFLOW

®

and MULTICAL®

In general, it is permissible to use up to 10 m cable between MULTICAL

®

and ULTRAFLOW®. If longer cable is

required, a Pulse Transmitter can be inserted between ULTRAFLOW

®

and MULTICAL®. In this way, the cable length

can be extended up to 50 m.

When a Pulse Transmitter is used between ULTRAFLOW

®

and MULTICAL®, volume pulses from the flow meter will be transferred to the calculator. However, data communication between the calculator and the flow meter is disabled. In order to avoid erroneous info codes it is, therefore, necessary to deselect the info codes, which are based on data communication between MULTICAL

®

and ULTRAFLOW® 54 (Info = 16-1024-2048-128-4096-8192-16384-

32768).

The above-mentioned info codes can be deselected by means of the PC-program METERTOOL, either by changing from CCC-code 4xx to 1xx, or by using the ”Info code setup” function under ”Utility”. See paragraph 14.2.3 Info code setup.

7.2 Flow meter with active 24 V pulse output



MULTICAL 801 can be direct connected to ”industrial” flow sensors with 24 V active pulse output on terminals 10B and 11B for V1 and terminals 69B and 79B for V2. If the only output of the flow meter used is a passive one, MULTICAL



801’s internal auxiliary supply on terminals 97A and 98A is used.

Technical data for the optoisolated pulse inputs

Pulse input voltage

12…32 V

Pulse current

Max. 12 mA at 24 V

Pulse frequency

Max. 128 Hz

Pulse duration:

Min. 3 ms

Cable length V1 and V2

Max. 100 m

(drawn with min. 25 cm distance to other cables)

Galvanic isolation

Inputs V1 (10B and 11B) and V2 (69B and 79B) are both individually

isololated and isolated from MULTICAL

Insulation voltage

2 kV

MULTICAL® 801

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7.2.1 Connection examples

Figure 4

The active pulse output is direct connected to the not galvanically separated flow sensor input. This permits a cable length of up to 10 m between flow sensor and calculator.

Figure 5

Auxiliary voltage from terminals 97A and 98A is added to the passive contact output on terminals 10A and 11A before the signal is connected to the galvanically separated flow sensor input. This permits a cable length of up to 100 m between flow sensor and calculator.

Figure 6

The active pulse output is direct connected to the galvanically separated flow sensor input. This permits a cable length of up to 100 m between flow sensor and calculator.

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Figure 7

The active pulse output is direct connected to the galvanically separated flow sensor input. This permits a cable length of up to 100 m between flow sensor and calculator.

Heat energy Cooling energy

Same ΔΘ polarity E2 = V2 (T1-T2)k E1 = V1 (T1-T2)k

Changed ΔΘ polarity E2 = V2 (T1-T2)k E3 = V1 (T2-T1)k

Figure 8

The active pulse output is direct connected to the galvanically separated flow sensor input. This permits a cable length of up to 100 m between flow sensor and calculator.

Figure 9

Auxiliary voltage from E+ and E- is added to the passive contact output P before the signal is connected to the galvanically separated flow sensor input. This permits a cable length of up to 100 m between flow sensor and calculator.

MULTICAL® 801

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Figure 10

The active pulse output is direct connected to the galvanically separated flow sensor input. This permits a cable length of up to 100 m between flow sensor and calculator.

Figure 11

The passive contact output on terminals 56 and 57 is direct connected to the not galvanically separated flow sensor input. This permits a cable length of max

10-20 m between flow sensor and calculator.

Figure 12

Auxiliary voltage from terminals 97A and 98A is added to the passive contact output on terminals 56 and 57 before the signal is connected to the galvanically separated flow sensor input. This permits a cable length of up to 100 m between flow sensor and calculator.

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Figure 13

Auxiliary voltage from terminals 97A and 98A is added to the passive contact output on terminals 24 and 25 before the signal is connected to the galvanically separated flow sensor input. This permits a cable length of up to 100 m between flow sensor and calculator.

Heat energy Cooling energy

Same ΔΘ polarity E2 = V2 (T1-T2)k E1 = V1 (T1-T2)k

Changed ΔΘ polarity E2 = V2 (T1-T2)k E3 = V1 (T2-T1)k

Figure 14

The two ULTRAFLOW

®

are installed ”back to back”, whereby one of the meters will measure flow, which one

depends on the flow direction.

ULTRAFLOW

®

is connected to the non-galvanically separated inputs. Up to 10 m cable length between flow

meter and calculator is thus possible.

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7.2.2 Flow sensor coding

Installing the sensor it is important that both flow sensor and MULTICAL



are correctly programmed. The below-

mentioned table lists the most frequently used flow sensor codes:

Number of decimals in display

CCC

No.

Pre-

counter

Flow

factor

MWh

Gcal

GJ m³

[ton]

m³/h MW l/imp Imp./l

Qp range [m³/h]

Qs

[m³/h]

Type Flow

sensor

201 100 235926 2 1 1 1 2 1 1 10…100

75 FUS380

DN50-65

N

202 40 589815 2 1 1 1 2 2.5 0.4 40…200

240 FUS380

DN80-100

N

203 400 589815 1 0 0 1 2 2.5 0.4 100…400

500 FUS380

DN125

N

204 100 235926 1 0 0 0 1 10 0.1 150…1200

1600 FUS380

DN150-250

N

205 20 1179630 1 0 0 0 1 50 0.02 500…3000

3600 FUS380

DN300-400

N

206 100 2359260 0 x10 x10 0 1 100 0.01 1400…18000 36000 FUS380

DN500-1200

N

Table 3

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7.3 Pulse inputs VA and VB

In addition to pulse inputs V1 and V2, MULTICAL 801 has two extra pulse inputs, VA and VB, for collection and remote accumulation of pulses from e.g. cold-water meters and electricity meters. The pulse inputs are physically placed in ”Module 1” like e.g. in ”M-Bus + pulse inputs” which can be placed in the connection bracket, but accumulation and data logging of values is carried out by the calculator.

Pulse inputs VA and VB function independently of the other inputs/outputs and are therefore not included in any energy calculation either.

The two pulse inputs are identically constructed and can be individually set up to receive pulses from water meters with max. 1 Hz or pulses from electricity meters with max. 3 Hz.

Configuration for correct pulse value has been carried out from the factory based on order information or is configured by means of METERTOOL. See paragraph 3.6 concerning configuration of VA (FF-codes and VB (GGcodes).

MULTICAL 801 registers the accumulated consumption of the meters connected to VA and VB and saves the counter values every month and every year on target date. In order to facilitate the identification during data reading it is also possible to save the meter numbers of the two meters connected to VA and VB. Programming is carried out with METERTOOL.

The registration, which can both be read from the display (selecting a suitable DDD-code) and via data communication, includes the following as well as date indication of yearly and monthly data:

Type of registration

Counter value Identification Yearly data Monthly data

VA (accumulated register)

•

Meter number VA

•

Yearly data, up to latest 15 years

•

Monthly data, up to latest 36 months

•

VB (accumulated register)

•

Meter number VB

•

Yearly data, up to latest 15 years

•

Monthly data, up to latest 36 months

•

Counter values VA and VB can be preset to the value of the connected meters at the time of commissioning by means of METERTOOL.

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7.3.1 Display example, VA

In the example below VA is configured as FF=24, which matches 10 litres/pulse and a max. flow of 10 m

3

/h. The

meter connected to VA has meter no. 75420145, which is saved in the internal memory of MULTICAL



801 by means

of METERTOOL.

Accumulated register of VA (Input A)

Meter no. of VA (max. 8 digits

Yearly data, date of LOG1 (latest target date)

Yearly data, value of LOG1 (latest yearly reading)

This is the accumulated volume registered on 1 June 2012

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8 Temperature sensors

MULTICAL 801 uses either Pt100 or Pt500 temperature sensors according to EN 60751 (DIN/IEC 751). A Pt100 or Pt500 temperature sensor respectively is a platinum sensor, of which the nominal ohmic resistance is 100.000 Ω and 500,000 Ω at 0.00°C and 138.506 Ω and 692,528 Ω at 100.00°C respectively. All ohmic resistance values are determined in the international standard IEC 751, applying to Pt100 temperature sensors. The ohmic resistance values of Pt500 sensors are five times higher. The tables below include resistance values for each degree celcius in [Ω] for both Pt100 and Pt500 sensors:

Pt100

°

C

0 1 2 3 4 5 6 7 8 9

0

100.000 100.391 100.781 101.172 101.562 101.953 102.343 102.733 103.123 103.513

10

103.903 104.292 104.682 105.071 150.460 105.849 106.238 106.627 107.016 107.405

20

107.794 108.182 108.570 108.959 109.347 109.735 110.123 110.510 110.898 111.286

30

111.673 112.060 112.447 112.835 113.221 113.608 113.995 114.382 114.768 115.155

40

115.541 115.927 116.313 116.699 117.085 117.470 117.856 118.241 118.627 119.012

50

119.397 119.782 120.167 120.552 120.936 121.321 121.705 122.090 122.474 122.858

60

123.242 123.626 124.009 124.393 124.777 125.160 125.543 125.926 126.309 126.692

70

127.075 127.458 127.840 128.223 128.605 128.987 129.370 129.752 130.133 130.515

80

130.897 131.278 131.660 132.041 132.422 132.803 133.184 133.565 133.946 134.326

90

134.707 135.087 135.468 135.848 136.228 136.608 136.987 137.367 137.747 138.126

100

138.506 138.885 139.264 139.643 140.022 140.400 140.779 141.158 141.536 141.914

110

142.293 142.671 143.049 143.426 143.804 144.182 144.559 144.937 145.314 145.691

120

146.068 146.445 146.822 147.198 147.575 147.951 148.328 148.704 149.080 149.456

130

149.832 150.208 150.583 150.959 151.334 151.710 152.085 152.460 152.835 153.210

140

153.584 153.959 154.333 154.708 155.082 155.456 155.830 156.204 156.578 156.952

150

157.325 157.699 158.072 158.445 158.818 159.191 159.564 159.937 160.309 160.682

160

161.054 161.427 161.799 162.171 162.543 162.915 163.286 163.658 164.030 164.401

170

164.772 165.143 165.514 165.885 166.256 166.627 166.997 167.368 167.738 168.108

Pt100, IEC 751 Amendment 2-1995-07

Table 4

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Pt500

°

C

0 1 2 3 4 5 6 7 8 9

0

500.000 501.954 503.907 505.860 507.812 509.764 511.715 513.665 515.615 517.564

10

519.513 521.461 523.408 525.355 527.302 529.247 531.192 533.137 535.081 537.025

20

538.968 540.910 542.852 544.793 546.733 548.673 550.613 552.552 554.490 556.428

30

558.365 560.301 562.237 564.173 566.107 568.042 569.975 571.908 573.841 575.773

40

577.704 579.635 581.565 583.495 585.424 587.352 589.280 591.207 593.134 595.060

50

596.986 598.911 600.835 602.759 604.682 606.605 608.527 610.448 612.369 614.290

60

616.210 618.129 620.047 621.965 623.883 625.800 627.716 629.632 631.547 633.462

70

635.376 637.289 639.202 641.114 643.026 644.937 646.848 648.758 650.667 652.576

80

654.484 656.392 658.299 660.205 662.111 664.017 665.921 667.826 669.729 671.632

90

673.535 675.437 677.338 679.239 681.139 683.038 684.937 686.836 688.734 690.631

100

692.528 694.424 696.319 698.214 700.108 702.002 703.896 705.788 707.680 709.572

110

711.463 713.353 715.243 717.132 719.021 720.909 722.796 724.683 726.569 728.455

120

730.340 732.225 734.109 735.992 737.875 739.757 741.639 743.520 745.400 747.280

130

749.160 751.038 752.917 754.794 756.671 758.548 760.424 762.299 764.174 766.048

140

767.922 769.795 771.667 773.539 775.410 777.281 779.151 781.020 782.889 784.758

150

786.626 788.493 790.360 792.226 794.091 795.956 797.820 799.684 801.547 803.410

160

805.272 807.133 808.994 810.855 812.714 814.574 816.432 818.290 820.148 822.004

170

823.861 825.716 827.571 829.426 831.280 833.133 834.986 836.838 838.690 840.541

Pt500, IEC 751 Amendment 2-1995-07

Table 5

8.1 Sensor types

MULTICAL



801 Type 67-



 



Pt500 sensor pair (2-wire sensors)

No sensor pair

0

Pocket sensor pair with 1.5 m cable

A

Pocket sensor pair with 3.0 m cable

B

Pocket sensor pair with 5 m cable

C

Pocket sensor pair with 10 m cable

D

Short direct sensor pair with 1.5 m cable

F

Short direct sensor pair with 3.0 m cable

G

Set of 3 pocket sensors with 1.5 m cable

L

Set of 3 short direct sensors with 1.5 m cable

Q3

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8.2 Cable influence and compensation

8.2.1 Two-wire sensor pair

MULTICAL



801 is in standard version fitted with 4-wire sensor inputs for all three inputs, T1-T2-T3. Mostly only relatively short temperature sensor lengths are needed for small and medium-size heat meters, which means that 2-wire sensor sets can be used with advantage.

Figure 15

Connection of 2-wire sensors by means of jumpers (type: 66-99-209)

Cable lengths and cross sections of the two sensors, which are used as temperature sensor pair for a heat meter,

must always be identical, and cable sensors must neither be shortened nor extended.

The limitations connected to the use of 2-wire sensor sets according to EN 1434-2 appear from the table below. Kamstrup supply Pt500 sensor sets with up to 10 m cable (2 x 0.25 mm

2

)

Cable cross

section

[

mm

2

]

Pt100 sensors

Pt500 sensors

Max. cable length

[m]

Temperature

increase [K/m]

Copper @ 20

°

C

Max. cable length

[m]

Temperature

increase [K/m]

Copper @ 20

°

C

0.25 2.5

0.450

12.5

0.090

0.50 5.0

0.200

25.0

0.040

0.75 7.5

0.133

37.5

0.027

1.50 15.0

0.067

75.0

0.013

Table 6

8.2.2 4-wire sensor pair

For installations, requiring longer cables than listed in the table above, we recommend the use of 4-wire sensor

sets.

MULTICAL



801 has a ”real” 4-wire construction, which uses two conductors for measuring current and the two

conductors for measuring signal, which means that the construction is in theory uninfluenced by long sensor cables. In practice, cables ought not to be longer than 100 m and we recommend the use of 4 x 0.25 mm

2

.

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The connection cable ought to have an outer diameter of 5-6 mm in order to obtain optimum tightness of both MULTICAL



801 and the screw-joint for the 4-wire sensor. The isolation material/cover of the cable ought to be

selected based on the maximum temperature in the installation. PVC cables are normally used up to 80°C and for higher temperatures, silicone cables are often used.

Kamstrup’s 4-wire sensor pair has a replaceable sensor insert and is available in lengths of 90, 140 and 180 mm.

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8.3 Pocket sensors

The Pt500 cable sensor is constructed with 2-wire silicone cable and closed with a D 5.8 mm shrunk on stainless steel tube, which protects the sensor element.

The steel tube is mounted in a sensor pocket (immersion pipe) which has an inner diameter of 6 mm and an outer diameter of 8 mm. Sensor pockets are available with R½ (conical ½”) connection in stainless steel i lengths of 65, 90 and 140 mm. The sensor construction with separate immersion pipe permits replacement of sensors without having to switch off the flow. Furthermore, the wide range of immersion pipe lengths ensures that the sensors can be mounted in all existing pipe dimensions.

Figure 16 Figure 17

The stainless steel pockets can be for mounting in PN25 systems!

The plastic tube on the sensor cable is placed opposite the sealing screw and the screw is tightened lightly by hand before sealing.

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8.4 Pt500 short direct sensor pair

The Pt500 short direct sensor has been constructed according to the European heat meter standard EN 1434-2. The sensor has been designed for direct mounting in the measuring medium, i.e. without sensor pocket, whereby a very fast response to temperature changes from e.g. domestic water exchangers is obtained.

The sensor is based on two-wire silicone cable. The sensor pipe is made of stainless steel and has a diameter of 4 mm at the point where the sensor element is placed. Furthermore, it can be direct mounted in many flow sensor types, which reduces the installation costs.

Figure 18

Figure 19

Figure 20

The sensor can be mounted in special T-sections

which are available for ½”, ¾” and 1” pipe installations.

In addition, the short direct sensor can be

mounted by means of a R½ or R¾ for M10 nipple in a standard 90

° tee.

To obtain the best serviceability during meter replacement, the short

direct sensor can be placed in a ball valve with a sensor connecting piece.

Ball valves with sensor connecting piece are available in G½, G¾, G1, G1¼ and G1½

No.

6556-474

6556-475

6556-476

6556-526

6556-527

G½

G¾

G1

G1¼

G1½

Recommended temperature sensor

DS 27.5 mm DS 27.5 mm DS 27.5 mm DS 38 mm DS 38 mm

Max. 130 °C and PN16

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9 Other connections

9.1 Pulse outputs CE and CV [16-19]

MULTICAL® 801 has pulse outputs for energy and volume pulses respectively. CE on terminals 16-17 releases one pulse per least significant digit in the energy count of the display. CV on terminals 18-19 releases one pulse per least significant digit in the volume count of the display.

For CCC codes with 8-digit counter (e.g. CCC=206) energy pulses (GJ) and volume pulses (m3) will be generated with every least significant digit but one.

If a higher resolution of pulse outputs is required, a high-resolution CCC code must be selected.

The pulse outputs are passive, optoisolated and tolerate 30 VDC and 10 mA. If active pulse outputs are required, the internal supply on terminals 97A-98A can be used.

Passive pulse outputs connected via external supply Active pulse outputs connected via internal supply

By means of the PC-programm METERTOOL you can choose between 32, 100 and 247 ms in addition to the option of pulses for combined heat/cooling measurement (CE- and CV-).

9.2 Analog outputs [80-87]

MULTICAL® 801 is available with 4 analog outputs. The outputs are active 0-20 mA or 4-20 mA, can be loaded with 0…500 Ω and are optoisolated in relation to the supply. The 4 analog outputs, however, are not mutually isolated. All values of the four analog outputs are updated every 10 seconds. The total response time however, may be up to 30-40 seconds including the response time for the flow sensor, the calculator and the digital to analog conversion. This response time has to be considered when using the analog outputs for other purposes than remote displaying.

The analog outputs can be configured as power, flow (V1, V2), T1, T2, T3 or T1-T2, and the measuring range can be configured. All relevant configurations can be set up from the factory or on site by means of METERTOOL.

After reconfiguration of the analog outputs, the meter must be reset. A reset can be effected in two different ways:

1) Switch off the mains supply and remove the plug to the back-up battery. The new values will not be saved in the

meter’s memory until back-up battery and mains supply have been reconnected.

2) By means of METERTOOL a ”normal reset” is carried out under ”UTILITY  Reset”. After this, the new values

have been stored in the meter’s memory.

Example of

configuration of the analog outputs:

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The analog outputs can also be coupled with common ground.

9.3 Data connection [62-64]

MULTICAL® 801 has data connection on terminals 62-63-64. The data connection is passive and optoisolated, as shown in the block diagram below. Adaption to RS 232 level is possible via data cable type 66-99-106. Adaption to USB is possible via data cable 66-99-098.

The data connection uses the KMP protocol. Please contact Kamstrup for further details on the KMP protocol.

9.4 Valve control [16B-18B]

MULTICAL® 801 has a built-in valve control, which makes it possible to automatically restrict power, flow, differential or outlet temperature to a preprogrammed limit.

Note: 24 VAC

For further details about installation and setup, you can order installation instructions 5512-498.

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9.5 Auxiliary supply [97A-98A]

MULTICAL® 801 comprises a built-in auxiliary supply on terminals 97A-98A. The auxiliary supply is based on an unstabilized power supply. This means that the output voltage varies depending on load. The output current must not exceed 50 mA and the nominal output current is 35 mA.

The auxiliary supply is suitable for e.g. supplying a Lon-module or a passive flow meter output.

The built in auxiliary supply is available on terminals 97A-98A.

The voltage on terminals 97A-98A varies according to load.

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10 Power supply

MULTICAL® 801 is available for 24 VAC or 230 VAC supply voltage.

MULTICAL



801 Type 67-

    

Supply

230 VAC supply

7

24 VAC supply

8

As the connection PCB of MULTICAL

®

801 is equipped with either a 24 VAC or a 230 VAC transformer, it is not

possible to change the supply voltage of a previously supplied meter.

10.1 Built in battery backup

The built-in backup battery maintains all basic energy meter functions, including flow meter supply on terminal

11-9-10 (V1) as well as terminal 11-9-69 (V2) during power failure. The battery backup does not support functions with high power consumption, such as back illumination of display and analog outputs.

The type number of the backup battery is 66-99-619 (2xA lithium battery with plug)

The lifetime of the backup partly depends on how long MULTICAL

®

801 remains without mains supply and partly on

the temperature, to which the battery is exposed.

Backup, expected lifetime

With supply

Without supply

MULTICAL® 801

10 years

1 year

The expected back-up lifetime is reduced proportionally to the time the meter remains in stock. After a long period in stock, or if in doubt, the back-up battery ought to be replaced before the meter is installed. Having changed the back-up battery, the clock must be adjusted via METERTOOL.

If the meter is to be in stock for a long period, it is possible to disconnect the back-up battery. Before installation, the back-up battery must be reconnected, and the clock must be adjusted and the data logger reset via METERTOOL.

After a storage period of three years, we recommend that you scrap the back-up battery.

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10.2 230 VAC supply

Includes a double-chamber safety transformer that fulfils the requirements to double-isolation. The power consumption is lower than 3 W (without analog outputs) or less than 9 W with analog outputs.

National regulations for electric installations must be observed. The heating station’s personnel can connect/ disconnect the 230 VAC module, whereas an authorized electrician must carry out the fixed 230 V installation into the meter panel.

10.3 24 VAC supply

Includes a double-chamber safety transformer, which fulfils the double-isolation requirements. The power consumption is lower than 3 W (without analog outputs) or less than 9 W with analog outputs.

National regulations for electric installations must be observed. The 24 VAC module can be connected/disconnected by the heating station’s personnel, whereas the fixed 230/24 V installation into the meter panel must be carried out by an authorized electrician.

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MULTICAL® 801 is specially suited for installation together with a 230/24 V safety transformer, e.g. type 6699-403, which can be installed in the meter panel in front of

the safety relay. When the transformer is used, the power consumption will be lower than 3 W (without analog outputs) or lower than 9 W with analog outputs, for the complete meter incl. 230/24 V transformer.

Note: The safery transformer 6699-403 is suitable for MULTICAL® 801 either with analog outputs or with high-power communication.

For MULTICAL

®

801 with both analog outputs and high-power communication we recommend a stronger

transformer, e.g. type 5920-161.

Maximum cable length between 230/24 VAC transformer e.g. Kamstrup type 6699-403 and MULTICAL

®

.

Cable type

Maximum length

2 x 0.75 m

50 m

2 x 1.5 mm2

100 m

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10.4 Danish regulations for the connection of mains operated meters

Installation to mains connected equipment for registration of consumption (Text from The Danish National Safety Board, 2004-12-06)

The consumption of energy and resources (electricity, heat, gas and water) of the individual consumer is to an increasing extent registered by electronic meters, and often equipment for remote reading and remote control of both electronic and non-electronic meters is used.

General regulations for carrying out installations must be observed. However, the following modifications are permitted:

• If meter or equipment for remote reading or remote control are double-isolated, it is not necessary to draw

the protective conductor all the way to the connection point. This also applies if the connection point is a plug socket provided that it is placed in a canning which is sealable or can be opened with key or tool only.

If meter or equipment for remote reading and remote control, which is connected to a safety transformer mounted in the panel and direct connected to the branch conductor, is used, no on-off-switch or separate overcurrent protection in either primary or secondary circuit is required provided that the following conditions are fulfilled:

• The safety transformer must either be inherently short-circuit-proof or fail-safe

• The conductor of the primary circuit must be either short-circuit-protected by the overcurrent protection of

the branch conductor or short-circuit safely drawn.

• The conductor of the secondary circuit must have a cross section of at least 0.5 mm² and a current value

which exceeds the absolute maximum current deliverable by the transformer

• It must be possible to separate the secondary circuit by separators or it must appear form the installation

instructions that the secondary circuit can be disconnected at the transformer’s terminals

General information. An authorized electrician must carry out Work on the fixed installation, including any intervention in the group panel.

It is not required that service work on equipment comprised by this message as well as connection and disconnection of the equipment outside the panel is carried out by an authorized electrician. This task can also be carried out by persons or companies, who professionally produce, repair or maintain equipment if only the person carrying out the work has the necessary expert knowledge.

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11 Plug-in modules

Two plug-in modules can be mounted in the connection base of MULTICAL 801, in this way the meter can be adapted to various applications.

All plug-in modules are included in the comprehensive type test, to which MULTICAL

®

801 has been subjected. Within the framework of the type approval, the CE-declaration and the manufacturer’s guarantee no other types of plug-in modules than the ones listed below can be used.

11.1 Plug-in modules

MULTICAL 801 Type 67-

         

Module 2 (VA and VB are not available in module position 2)

No module

0

Siox module (Auto detect Baud rate)

M

M-Bus (Alternative. registre)

P

M-Bus module with MCIII data package

Q

M-Bus

V

RadioRouter

W

LonWorks, FTT-10A

Y

GSM/GPRS (GSM6H)

Z 3G GSM/GPRS (GSM8H)

U

Ethernet/IP modul (IP201)

T

Module 1 (VA and VB are available in module position 1)

No module

00

M-Bus + pulse inputs

20

RadioRouter + pulse inputs

21

Data logger + 4-20 mA inputs + pulse inputs

22

LonWorks, FTT-10A + pulse inputs

24

M-Bus module with alternative registers + pulse inputs

27

M-Bus module with MC-III data package + pulse inputs

29

Wireless M-Bus Mode C1 + pulse inputs

30

Wireless M-Bus Mode T1 OMS 15 min. (Individual key)

31

Wireless M-Bus Mode C1 Alt. reg. (Individual key) + pulse inputs

35

Wireless M-Bus Mode C1 Fixed Network (Individual key)

38

ZigBee 2.4 GHz int.ant. + pulse inputs

60

Metasys N2 (RS485) + pulse inputs

62

Siox module (Auto detect Baud rate)

64

BACnet MS/TP + pulse inputs

66

Modbus RTU + pulse inputs

67

High Power Radio Router + pulse inputs

84

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11.1.1 Possible combinations of module 1 and module 2

2 ⇒ 1

⇓

67-0W

RadioRouter

67-0Y

LonWorks

67-0Z

GSM/GPRS

67-0U

3G GSM/GPRS (GSM8H)

65-0M

SIOX

67-0T

Ethernet/IP (IP201)

67-0P

M-Bus (Alt. reg.)

67-0V

M-Bus

67-0Q

M-Bus MCIII data

67-00-20/27/29

M-Bus

+ pulsindg.

OK OK OK OK OK OK OK

67-00-21

RadioRouter

+ pulse input

N/A OK N/A N/A OK OK OK

67-00-22 0/4-20 Input

OK OK OK OK OK OK OK

67-00-24

LonWorks + pulse input

OK OK OK OK OK OK OK

67-00-30/31/35/38

wM-Bus

+ pulse input

OK OK OK OK OK OK OK

67-00-60

ZigBee

+ pulse input

OK OK OK OK OK OK OK

67-00-62

Metasys N2

OK OK OK OK OK OK OK

67-00-64

SIOX

OK OK OK OK OK OK OK

67-00-66

BACnet MS/TP +

pulse inputs

OK OK OK OK OK OK OK

67-00-67

Modbus RTU +

pulse inputs

OK OK OK OK OK OK OK

67-00-84

High Power Radio

Router + pulse input

N/A OK N/A N/A OK N/A OK

11.1.2 Options of external communication unit connected to data output (62-63-64)

Ext. box ⇓

Serial DATA

62-63-64

Comments/limitations in use

67-0W

RadioRouter

No limitations

67-0Y

LonWorks

No limitations

67-0M

SIOX

No limitations

67-0Z

GSM/GPRS

Supply unit for GSM/GPRS module must be included in the external communication unit

67-0U

3G GSM/GPRS

(GSM8H)

Supply unit for GSM/GPRS module must be included in the external communication unit

67-0T

Ethernet/IP

(IP201)

Supply unit for GSM/GPRS module must be included in the external communication unit

67-0Q

M-Bus MCIII data

67-0V

M-Bus

67-0P

M-Bus

(Alternative registre)

No limitations

Note: Pulse input VA and VB (terminals 65-66-67-68) is not connected if the module is used in an external communication unit.

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11.1.3 M-Bus + pulse inputs (67-00-20) (67-0V) (PCB - 5550-831)

The M-bus module is supplied through the M-bus network and is thus independent of the meter’s internal supply. Two-way communication between M-bus and energy meter is carried out via optocouplers providing galvanic separation between M-bus and meter. The module supports both primary, secondary and enhanced secondary addressing.

The M-bus module has two extra inputs, which can only be used if modules are mounted in module position 1. See paragraph “7.3 Pulse inputs VA and VB” concerning the function of the pulse inputs.

Limitations The maximum register value of the M-Bus Protocol is "2147483647", with the following main units: "10xm3", "10xkWh" and "10xMJ". This means that energy meters with 8-digit energy register in MWh or GJ cannot be read through the M-Bus. This applies, e.g. for MULTICAL

®

801 with CCC code 206.

11.1.4 RadioRouter + pulse inputs (67-00-21) (67-0W) (PCB - 5550-805)

The radio module is available for operation in licence-free frequency bands and for licence demanding frequencees. The module is available with internal antenna as well as connection for external antenna.

The radio module is prepared to form part of a Kamstrup radio network, the read data being automatically transferred to system software via the network component/network unit RF Concentrator.

The radio module has two extra inputs, which can only be used if modules are placed in module area 1. See paragraph “7.3 Pulse inputs VA and VB” concerning the function of the pulse inputs.

The RadioRouter module must be used with mains supply.

11.1.5 Prog. data logger + RTC + 4…20 mA inputs + pulse inputs (67-00-22) (PCB - 5550-925)

The module has connection possibility for two pressure transmitters on terminals 57, 58 and 59 and can be adjusted for current reading or pressure ranges of 6, 10 or 16 bar.

The module is prepared for remote reading, data from meter/module being transferred to the system software via the connected external GSM/GPRS modem on terminals 62, 63 and 64.

The module has two extra pulse inputs, which can only be used, however, if modules are mounted in module position 1, see paragraph 7.2: Pulse inputs VA and VB as to function. The module must be powered by 24 VAC.

Pressure transmitter requirements: 4…20 mA, 2-wire, loop-powered, loop voltage max. 16 VDC

(e.g. type CTL from Baumer A/S)

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11.1.6 LonWorks, FTT-10A + pulse inputs (67-00-24) (67-0Y) (PCB - 5550-1128)

The LonWorks module is used for data transfer from MULTICAL



801, either for data reading/registration or

regulation purposes via the Lon-Bus.

Furthermore, the module has two extra pulse inputs, which can only be used, however, if modules are mounted in module position 1, see paragraph 7.3: Pulse inputs VA and VB as to function. The module must be powered by 24 VAC/DC or 12 VDC from terminals 97A-98A.

A list of network variables (SNVT) and further details about the LonWorks module appear from data sheet 5810-1043 (GB). Regarding mounting, we refer to installation instructions 5512-1105 (GB).

11.1.7 M-Bus module with alternative registers + pulse inputs (67-00-27) (670P) (PCB - 5550-997)

The M-Bus module is supplied via the M-Bus network and is independent of the meter’s own supply. M-Bus and the energy meters communicate two-way via opto couplers, which gives galvanically separation between M-Bus and the meter. The module supports primary, secondary and enhanced secondary addressing.

The M-Bus module has two extra inputs. See paragraph 7.3 Pulse inputs VA and VB concerning functioning of the pulse inputs.

11.1.8 M-Bus module with MC-III data package + pulse inputs (67-00-29) (67-0Q) (PCB - 5550-1125)

The M-Bus module 670029 comprises the same data packet as M-Bus module 6604 for MC III/66-C and module 660S for MCC/MC 401.

The module can e.g. be used together with the old M-Bus master with display, old regulators and old reading

systems not supporting the newer M-Bus modules.

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11.1.9 Wireless M-Bus + 2 pulse inputs (67-00-30) (67-00-35) (PCB - 5550-1097 / -1200)

The radio module has been designed to form part of Kamstrup's hand-held Wireless M-Bus Reader systems, which operate within the unlicensed frequency band in the 868 MHz area.

The module fulfils the C-mode specifications of EN13757-4:2013 and can thus form part of other systems using Wireless M-Bus C-mode communication.

The radio module comes with internal antenna and external antenna connection as well as two pulse inputs (VA + VB)

Paragraph 7.3 “Pulse inputs VA and VB” describes how the pulse inputs function.

11.1.10 Wireless M-Bus (67-00-31) (PCB 5550-1386)

The Wireless M-Bus module has been developed to be integrated in an ”Open Metering System” (OMS) solution without further configuration, and operates within the unlicensed frequency band in the 868 MHz area.

The communication protocol is T-mode according to OMS specifications: Volume 2: Primary Communication Version 4.0.2, and the module uses one-way communication, data being automatically sent from the meter after installation, every 15 minutes from module 67-00-31.

The T1 OMS module supports individual encryption and comes with internal antenna as well as MCX connection for external antenna.

Kamstrup recommend that an external antenna is mounted on this module if the meter is fitted with a top module too. This ensures the best possible radio range.

Photo see above paragraph 11.1.9.

11.1.11 Wireless M-Bus (67-00-38) (PCB 5550-1356)

This Wireless M-Bus module has been specifically developed for integration in a Wireless M-Bus network (Radio Link/READy Network) and operates within the unlicensed frequency band in the 868 MHz area.

The communication protocol is C-mode according to the standard EN13757-4, and the module uses one-way communication. After installation, data is automatically sent from the meter every 96 seconds.

The Wireless M-Bus module for fixed network supports individual encryption and comes with internal antenna as well as MCX connection for external antenna.

Kamstrup recommend that an external antenna is mounted on this module if the meter is fitted with a top module too. This ensures the best possible radio range.

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11.1.12 ZigBee + 2 pulse inputs (67-00-60) (PCB - 5550-992)

The ZigBee module is mounted direct in the meter and is powered by the meter's supply. The module operates within the 2.4 GHz area and is ZigBee Smart Energy certified. The certification secures that the meter can form part of other ZigBee networks, e.g. reading several meter types from different meter suppliers.

To be able to offer a compact solution the module uses an internal antenna. Paragraph 7.3 “Pulse inputs VA and VB” describes how the pulse inputs function.

11.1.13 Metasys N2 (RS485) + 2 pulse inputs (VA, VB) (67-00-62) (PCB - 5550-1110)

The N2 module is used for data transfer from MULTICAL



heat and cooling meters to an N2 Master in a Johnson Controls System. The N2 module transfers accumulated energy and volume, current temperatures, flow and power from the heat or cooling meter to an N2 Master. N2 Open from Johnson Controls is a widespread and established field bus protocol used within building automation. The N2 module for MULTICAL



ensures simple integration from Kamstrup’s heat and cooling meters to N2 Open based systems. Adress area is 1-255 determined by the last three digits of the meters customer number.

Further details about the Metasys N2 module appear from data sheet 5810-925, GB-version.

11.1.14 SIOX module (Auto detect Baud rate) (67-00-64) (67-0M) (PCB - 5920-193)

SIOX is used for data reading of small and medium size groups of heat meters via cable, the data reading being presented by the main system, e.g. MCom, Fix or Telefrang. Further information on these systems can be ordered from the supplier in question. Furthermore, a configuration tool is available from Telefrang.

The two-wire serial SIOX bus connection is optoisolated from the meter and is connected without regard to polarity (i.e. the polarity is unimportant). The module is powered by the SIOX bus. Communication speed between 300 and 19,200 baud. The module automatically uses the highest possible communication speed. The module converts data from KMP protocol to SIOX protocol.

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11.1.15 BACnet MS/TP (B-ASC) RS485 + 2 pulse inputs (VA, VB) (67-00-66) (PCB- 5550-1240)

The BACnet module is used for data transfer from MULTICAL

heat cooling and water meters into BACnet systems.

The BACnet module transfers Meter number (programmable), Serial number, Accumulated heat energy (E1), Accumulated cooling energy (E3), Accumulated volume flow (V1), Flow temperature, Outlet temperature, Temperature difference, Actual flow, Actual power, Accumulated values from additional meters via puls InA, InB, Info codes from the heat, cooling and water meter to the BACnet system. BACnet is a widespread and established field bus protocol used within building automation. The BACnet module for MULTICAL

ensures simple integration

from Kamstrup’s heat, cooling and water meters to BACnet based systems. The Module can be used as either master or slave, depending on the used MAC address.

Further details about the BACnet MS/TP module appear from data sheet 5810-1055, GB-version.

11.1.16 Modbus RS485 RTU* Slave Module with 2 pulse inputs (VA, VB) (67-00-67) (PCB 5550-1277)

The Modbus base module for MULTICAL

®

ensures simple integration from Kamstrup’s heat, cooling and water meters into a Modbus based system. Modbus is an open, widespread and well-established serial communication protocol used within building automation. Further details about the Modbus MS/TP module appear from data sheet 5810-1253, GB-version.

*) RTU: Remote Terminal Unit

11.1.17 GSM/GPRS module (GSM6H) (67-0Z) (PCB - 5550-1137)

The GSM/GPRS module functions as transparent communication path between reading software and MULTICAL



801 and is used for data reading. The module includes an external dual-band GSM antenna, which must always be used. The module itself includes a line of light emitting diodes indicating signal strength, which are very useful during installation.

Further details about the GSM/GPRS module appear from data sheet 5810-627. GB-version 5810-628, DE-version 5810-629, SE-version 5810-630.

Regarding mounting, we refer to installation instructions DK-version 5512-686, GB-version 5512-687, DE-version 5512-688.

Sim card

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11.1.18 3G GSM/GPRS module (GSM8H) (67-0U) (PCB - 5550-1209)

Like GSM6H this module functions as transparent communication path between reading software and MULTICAL



801 and is used for data reading. However, this module supports both 2G (GSM/GPRS) and 3G (UMTS) which makes it applicable in areas with 3G

coverage only. The module requires an external Antenna, which covers both 900 MHz, 1800 MHz and 2100 MHz. The module itself is fitted with a line of light emitting diodes indicating signal strength, which are very useful during

installation. Furthermore, it is indicated whether the module is connected to a 2G or a 3G network. Additional details about the 3G module appear from data sheet 58101057 DK-version, 55101058 GB-version,

58101059 DE-version, 58101061 FI-version and 58101060 SE-version. Regarding mounting, we refer to installation instructions 55121121 DK-version, 55121122 GB-version, 55121123

DE-version, 55121124 FI-version and 55121125 SE-version.

11.1.19 Ethernet/IP module (IP201) (67-0T) (PCB - 5550-844)

The IP module functions as transparent communication between reading software and MULTICAL ®801 and is used for data reading. The module supports both dynamic and static addressing. This is specified in the order or selected during subsequent configuration. The module has no built-in security and must, therefore, always be used in connection with a firewall or NAT.

Further details appear from the data sheet, DK-version 5810-541, GB-version 5810-542, DE-version 5810-543, SEversion 5810-544. As far as installation is concerned we refer to installation instructions, DK version 5512-934, GBversion 5512-937, DE-version 5512-938, SE-version 5512-939.

11.1.20 High Power Radio Router + 2 pulse inputs (VA, VB) (67-00-84) (PCB - 5550-1221)

The High Power RadioRouter module has built-in router functionality and is thus optimized to form part of a Kamstrup radio network, the read data being automatically transferred to system software via the network unit RF Concentrator.

Furthermore, the module can be read by Kamstrup’s hand-held reading systems, e.g. USB Meter Reader and MT Pro. The RadioRouter module is available for operation in both licence-free and licence demanding frequences permitting a transmitting strength of up to 500 mW. The module is by default fitted with internal antenna, connection for external antenna, and two extra pulse inputs.

See paragraph 7.3 Pulse inputs VA and VB regarding the function of the pulse inputs.

MULTICAL® 801

Kamstrup A/S · Technical Description · 5512-571_R1_GB _11.2016

97

11.2 Retrofitting modules

Modules for MULTICAL 801 are also supplied separately for retrofitting. The modules are configured and ready for installation from the factory. However, some of the modules need individual configuration after installation, which is possible by means of METERTOOL.

Module 1 (Module 2)

Possible configuration after installation

M-Bus + pulse inputs 20 (V)

Pulse values of VA and VB are changed via METERTOOL.

Primary and secondary M-Bus addresses can be changed via METERTOOL or M-Bus. Furthermore, monthly logger data can be selected instead of yearly logger data via M-bus.

RadioRouter + pulse inputs

21 (W)

Pulse values of VA and VB are changed via METERTOOL.

Prog. data logger + RTC + 4…20 mA inputs + pulse inputs

22 -

Clock adjustment. Pulse values of VA and VB are changed via METERTOOL.

LonWorks, FTT-10A + pulse inputs

24 (Y)

Pulse values of VA and VB are changed via METERTOOL. All other configurations are made via LonWorks.

M-Bus module with alternative registers + pulse inputs

27 (P)

Pulse values of VA and VB are changed via METERTOOL.

Primary and secondary M-Bus addresses can be changed via METERTOOL or M-Bus. Furthermore, monthly logger data can

be selected instead of yearly logger data via M-Bus

M-Bus module with MC-III data package + pulse inputs

29 (Q)

Pulse values of VA and VB are changed via METERTOOL.

Primary and secondary M-Bus addresses can be changed via

METERTOOL or M-Bus.

Wireless M-Bus + pulse inputs

30/35/38

Pulse values of VA and VB are changed via METERTOOL

Wireless M-Bus 31 N/A

ZigBee 2.4 GHz internal antenna + pulse inputs

60

Pulse values of VA and VB are changed via METERTOOL

Metasys N2 (RS485) + pulse inputs 62 Pulse values of VA and VB are changed via METERTOOL

SIOX module

64 (M)

N/A

BACnet MS/TP + pulse inputs 66

Configuration of communication address via Module

Programmer or METERTOOL.

Modbus RTU + pulse inputs

67

Configuration of communication address etc. via Module

Programmer or METERTOOL.

High Power Radio Router + pulse inputs 84 Pulse values of VA and VB are changed via METERTOOL

MULTICAL® 801

98

Kamstrup A/S · Technical Description · 5512-571_R1_GB_11_2016

Data modules are retrofitted by placing the module in the PCB holder in the left side of the meter and "clicking" on the module.

Insert module

Module and meter are electrically connected using a 6-pole jumper:

Add jumper

MULTICAL® 801

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99

12 Data communication

12.1 MULTICAL



801 Data Protocol

Internal data communication in MULTICAL



801 is based on the Kamstrup Meter Protocol (KMP), which partly

provides a quick and flexible reading structure and partly fulfils future requirements to data reliability.

The KMP protocol is used in all Kamstrup consumption meters launched in 2006 and later. The protocol is used on the optical eye and via plug pins for the modules. Thus, modules with e.g. M-bus interface use the KMP protocol internally and the M-bus protocol externally.

The KMP protocol has been constructed to handle point-to-point communication in a master/slave system (e.g. a bus system) and is used for data reading of Kamstrup energy meters.

Software and parameter protection

The meter’s software is implemented in a ROM and cannot be changed, neither deliberately nor by mistake. The legal parameters cannot be changed via data communication without breaking the legal seal and short circuiting the ”total programming lock”.

Software conformity

Software checksum, based on CRC16, is available via data communication and in the display.

Integrity and authenticity of data

All data parameters include type, measuring unit, scaling factor and CRC16 checksum. Every produced meter includes a unique identification number.

Two different formats are used in the communication between master and slave, either a data frame format or an application acknowledgement format.

• A request from master to slave is always sent in a data frame.

• The response from the slave can be sent either in a data frame or as an application acknowledgement.

The data frame is based on the OSI model using the physical layer, the data link layer and the application layer.

Number of bytes in each field

1 1 1

0-?

2

1

Field designation

Start byte

Destination

address

CID

Data

CRC

Stop byte

OSI – layer

Application layer

Data link layer

Physical layer

The protocol is based on half-duplex serial synchroneous communication with setup: 8 data bits, no parity and 2 stop bits. The data bit rate is 1200 or 2400 baud. CRC16 is used in both request and response.

Data is transferred byte for byte in a binary data format, of which the 8 data bits represent one byte of data.

Byte Stuffing is used for extending the value range.

12.1.1 The register IDs of MULTICAL



801

MULTICAL® 801

100

Kamstrup A/S · Technical Description · 5512-571_R1_GB_11_2016

ID

Register

Description

1003

DATE

Current date (YYMMDD)

60

E1

Energy register 1: Heat energy:

94

E2

Energy register 2: Control energy:

63

E3

Energy register 3: Cooling energy:

61

E4

Energy register 4: Forward energy:

62

E5

Energy register 5: Return energy:

95

E6

Energy register 6: Tap water energy:

96

E7

Energy register 7: Heat energy Y

97

E8

Energy register 8: [m

3

x T1]

110

E9

Energy register 9: [m

3

x T2]

64

TA2

Tariff register 2

65

TA3

Tariff register 3

68

V1

Volume register V1

69

V2

Volume register V2

84

VA

Input register VA

85

VB

Input register VB

72

M1

Mass register V1

73

M2

Mass register V2

1004

HR

Operating hour counter

113

INFOEVENT

Info event counter

1002

CLOCK

Current hour (hhmmss)

99

INFO

Info code register, current

86

T1

Current inlet temperature

87

T2

Current outlet temperature

88

T3

Current temperature T3

122

T4

Current temperature T4

89

T1-T2

Current differential temperature

91

P1

Pressure in inlet

92

P2

Pressure in return

74

FLOW1

Current inlet flow

75

FLOW2

Current outlet flow

80

POWER1

Current power calculated on the basis of V1-T1-T2.

123

MAX FLOW1DATE/YEAR

Date of this year’s min.

124

MAX FLOW1DATE/YEAR

This year’s max. value

125

MIN FLOW1DATE/YEAR

Date of this year’s min.

126

MIN FLOW1/YEAR

This year’s min. value

127

MAX POWER1DATE/YEAR

Date of this month’s max.

128

MAX POWER1/YEAR

This year’s max. value

129

MIN POWER1DATE/YEAR

Date of this year’s min.

130

MIN POWER1/YEAR

This year’s min. value

138

MAX FLOW1DATE/MONTH

Date of this month’s max.

139

MAX FLOW1/MONTH

This month’s max. value

140

MIN FLOW1DATE/MONTH

Date of this month’s min.

141

MIN FLOW1/MONTH

This month’s min. value

142

MAX POWER1DATE/MONTH

Date of this month’s max.

143

MAX POWER1/MONTH

This month’s max. value

144

MIN POWER1DATE/YEAR

Date of this month’s min.

145

MIN POWER1/MONTH

This month’s min. value

146

AVR T1/YEAR

Year-to-date average for T1

147

AVR T1/YEAR

Year-to-date average for T2

149

AVR T1/MONTH

Month-to-date average for T1

150

AVR T2/MONTH

Year-to-date average for T2

66

TL2

Tariff limit 2

67

TL3

Tariff limit 3

98

XDAY

Target date (reading date)

152

PROG NO

Prog. no. ABCCCCCC

153

CONFIG NO 1

Config no. DDDEE

168

CONFIG NO 2

Config. no. FFGGMN

1001

SERIAL NO

Serial no. (unique number of each meter)

112

METER NO 2

Customer number (8 most significant digits)

1010

METER NO 1

Customer number (8 least significant digits)

114

METER NO VA

Meter no. of VA

104

METER NO VB

Meter no. of VB

1005

METER TYPE

Software edition

154

CHECK SUM 1

Software check sum

155

HIGH RES

High-resolution energy register for test purposes

157

TOP MODULE ID

ID number of top m odule

158

BOTMODULE ID

ID number of base module

Kamstrup MULTICAL 801 Technical Description

Specifications and Main Features

Frequently Asked Questions

User Manual