Sineax M561 - Measuring equipment Camille Bauer - Free user manual and instructions

Product type	Programmable multiple measurement converter
Brand	Camille Bauer
Model	Sineax M561 (also M562 and M563)
Dimensions (L × H × D)	Approximately 112.5 × 114.1 × 69.1 mm (housing P20/105)
Mounting	On "top hat" rail (EN 50 022) 35×15 or 35×7.5 mm
Auxiliary supply	24 – 60 V DC/AC or 85 – 230 V DC/AC (depending on version); consumption ≤ 5 W / 7 VA
Measurement inputs	Alternating current (up to 12 A continuous) and alternating voltage (up to 693 V between phases)
Analog outputs	1 to 3 galvanically isolated outputs (current 1…20 mA or voltage 5…10 V)
Programming interface	RS 232 C (connector programmable via M560 software and PRKAB 560 cable)
Measured quantities	Current, voltage, active/reactive/apparent power, power factor, frequency, etc.
Accuracy class	0.5 or 1.0 depending on quantity and range
Measurement cycle	Approximately 0.6 to 1.6 s (50 Hz)
Response time	1 to 2 measurement cycles
Electrical safety	Protection class II (protective insulation); IP40; overvoltage category III up to 300 V
Operating temperature	-10 to +55 °C
Storage temperature	-40 to +85 °C
Relative humidity	≤ 75% annual average
Maximum altitude	2000 m
Maintenance	No maintenance necessary; servicing only by the manufacturer or authorized service
Supplied accessories	Programming cable (PRKAB 560) and M560 configuration software (optional)
Certifications	CSA (USA/Canada), FCC Class A, Canadian DOC

Frequently Asked Questions - Sineax M561 Camille Bauer

How to program the Sineax M561?

Use the M560 configuration software (ref. 146 557) and the PRKAB 560 programming cable (ref. 147 779 / 143 587). Connect the RS 232 C interface of the device to a PC, power on the device, then launch the software to modify parameters (connection system, quantities, outputs, etc.). A password can protect the configuration.

What quantities can the Sineax M561 measure?

It measures current, voltage, active, reactive and apparent power, power factor, frequency, as well as average values. It can process up to 3 quantities simultaneously depending on the model (M561: 1 output, M562: 2, M563: 3).

How to electrically connect the device?

Follow the diagram on the nameplate. The current inputs connect to terminals 1/3, 4/6, 7/9; the voltages to terminals 2,5,8,11. The auxiliary supply connects to terminals 13 and 14 (~ or + depending on type). Important: Always disconnect the power before connection and comply with national regulations.

What to do in case of malfunction?

First check the connections and power supply. If the device appears damaged, disconnect it from power and contact Camille Bauer customer service. Do not open the device as live parts may be exposed. Any unauthorized intervention voids the warranty.

What safety precautions should be observed?

Before any intervention, disconnect the auxiliary supply and input voltages. Use the device only indoors, at altitudes below 2000 m. Respect the overvoltage categories (III for ≤300 V, II beyond). Analog outputs may be short-circuited but must not exceed the specified limits.

Can the analog output range be modified?

Yes, by software. For example, reducing the final value from 20 mA to 10 mA is possible, but with reduced accuracy. For hardware modification (component change), the device must be returned to the factory. Any internal intervention voids the warranty.

How to mount the device on a rail?

The housing snaps onto a 'top hat' rail (35×15 or 35×7.5 mm, according to EN 50 022). See figure 1 of the manual. Observe the ambient environment: temperature 0-45°C (group II), humidity ≤75%, avoid excessive vibration.

What are the exact dimensions of the housing?

According to the dimensional drawing: width 112.5 mm, height 114.1 mm, depth 69.1 mm (housing P20/105). These dimensions are standard for DIN rail.

How to perform output simulation?

The M560 configuration software allows simulating analog outputs. Connect the device via RS232, then in the menu, activate the simulation function to test the output behavior without actual input quantity.

Does the device require regular maintenance?

No, the measurement converter does not require any maintenance. Clean the exterior with a dry cloth if necessary. Any repair or calibration must be carried out by the manufacturer or an authorized service.

USER MANUAL Sineax M561 Camille Bauer

Operating Instructions

Programmable multi-transducer

SINEAX M561 / M562 / M563

15 16 17 18 19 20 - A + - B + - C + RS A P1 -115.47.115.47W -20.20mA B P2 -115.47.115.47W -20.20mA C P3 -115.47.115.47W -20.20mA 100V 2A 50Hz 3N - I1 U1 I1 I2 U2 I2 I3 U3 I3 SINEAX M563 Maf: 146A48 17777777 ACDC 08-250V 50kHz 7VA - ~ + N ACDC 08-250V 50kHz 7VA - ~ + 1 2 3 4 5 6 7 8 9 10 11 12 13 14

M56x B d-f-e

143 579-06 08.14

Betriebsanleitung

Programmierbarer Multi-Messumformer

SINEAX M561 / M562 / M563 ......Seite 3

Mode d'emploi

Operating Instructions

Programmable multi-transducer

SINEAX M561 / M562 / M563 Page 23

The following symbols in the Operating Instructions indicate safety precautions which must be strictly observed:

The instruments must only be disposed of in the correct way!

Inhaltsverzeichnis

Illustration of a hand holding a rectangular object with a downward arrow, next to a textured surface (no text or symbols)

$$ X 0 \leq X \leq X 1 $$

$$ c = \frac {Y 1 - Y 0}{X 1 - X 0} \cdot \frac {X 2}{Y 2} \text { oder } c = 1 $$

$$ X 1 < X \leq X 2 $$

$$ c = \frac {1 - \frac {Y 1}{Y 2}}{1 - \frac {X 1}{X 2}} \text { oder } c = 1 $$

eingang (self powered):

≥ 24 - 60 V AC oder

85 - 230 V AC

Diagram of a screwdriver holding a tool near a mechanical component (no text or symbols)

Bild 7

Hersteller/ Manufacturer: Camille Bauer Metrawatt AG Switzerland

Anschrift / Address: Aargauerstrasse 7 CH-5610 Wohlen

The above mentioned product has been manufactured according to the regulations of the following European directives proven through compliance with the following standards:

Leiter Technik / Head of engineering

i.0. Brem J. Brem Qualitätsmanager / Quality manager

Sommaire

Illustration of a hand holding a rectangular object with a downward arrow, next to a textured surface (no text or symbols)

$$ X 0 \leq X \leq X 1 $$

$$ c = \frac {Y 1 - Y 0}{X 1 - X 0} \cdot \frac {X 2}{Y 2} \quad o u c = 1 $$

$$ X 1 < X \leq X 2 $$

$$ c = \frac {1 - \frac {Y 1}{Y 2}}{1 - \frac {X 1}{X 2}} \text { ou } c = 1 $$

IP 20, bornes de raccordement

Diagram of a screwdriver holding a flat object with a tool, showing an upward arrow (no text or symbols present)

Fig. 7

Hersteller/ Manufacturer: Camille Bauer Metrawatt AG Switzerland

Anschrift / Address: Aargauerstrasse 7

CH-5610 Wohlen

The above mentioned product has been manufactured according to the regulations of the following European directives proven through compliance with the following standards:

Leiter Technik / Head of engineering

1. Read first and then.... 23
2. Brief description ......23
3. Mounting ......23
4. Electrical connections .....23
5. Commissioning 27
   5.1 Technical data ......27
   5.2 Programming the transducer ....30
6. Reconfi guring the analog outputs .....30
7. Notes of maintenance ....31
8. Releasing the transducer ....31
9. Dimensional drawing ....31
10. Safety notes ....31
11. Instrument admission ....31
12. Declaration of conformity ....32

1. Read first and then ...

The proper and safe operation of the device assumes that the Operating Instructions are read and the safety warnings given in the sections

1. Mounting

2. Electrical connections

3. Commissioning

4. Safety notes

are observed.

The device should only be handled by appropriately trained personal who are familiar with it and authorized to work in electrical installations.

Unauthorized repair or alteration of the unit invalidates the warranty.

2. Brief description

SINEAX M561 / M562 / M563 is a programmable transducer with a RS 232 C interface. It supervises any 1, 2 resp. 3 variables of an electrical power system simultaneously and generated 1, 2 resp. 3 electrically insulated analog output signals.

The transducers are also equipped with an RS 232 serial interface to which a PC with the corresponding software can be connected for programming or accessing and.

The usual methods of connection, the types of measured variables, their ratings, the transfer characteristic for each output etc. are the main parameters that can be programmed.

The ancillary functions include displaying, recording and evaluation of measurements on a PC, the simulation of the outputs for test purposes and a facility for printing nameplates.

3. Mounting

The transducer SINEAX M561 / M562 / M563 can be mounted on a top-hat rail.

Note “Environmental conditions” in Section “5.1 Technical data” when determining the place of installation!

Simply clip the device onto the top-hat rail (EN 50 022) (see Fig. 1).

Illustration of a hand holding a rectangular object with a downward arrow, next to a textured surface (no text or symbols)

Fig. 1. Mounting on top-hat rail 35 × 15 or 35 × 7.5 mm.

4. Electrical connections

Connect the electric conductors acc. to the instructions on type label. Note, that the direction of energy and the phase sequence are adhered to.

Make sure that all cables are not live when making the connections!

Impending danger by high input voltage or high power supply voltage!

Note that, ...

... the data required to carry out the prescribed measurement must correspond to those marked on the nameplate of the SINEAX M561 / M562 / M563 (→ measuring input, → measuring output and → power supply, see Fig 2)!
... the resistance in the output circuit may not overrange the current output value

$$ R _ {\text { ext }} \max. [ k \Omega ] \leq \frac {1 5 \mathrm{V}}{I _ {\mathrm{AN}} [ \mathrm{mA} ]} $$

$$ \left(I _ {A N} = \text { current output value }\right) $$

and not underrange the voltage output value

$$ R _ {\text { ext }} \min. [ k \Omega ] \geq \frac {U _ {\mathrm{AN}} [ V ]}{1 \mathrm{mA}} $$

$$ \left(\mathrm{U} _ {\text { AN }} = \text { voltage output value }\right) $$

... the measurement output cables should be twisted pairs and run as far as possible away from heavy current cables!

In all other respects, observe all local regulations when selecting the type of electrical cable and installing them!

Function		Connect.
Measuring input AC current IL1 1/3
-→IL2 4/6
AC voltage UL1 2
		N
Outputs*) Analog
→A		15
		16
		17
		18
		19
		20
Power supply AC		13
→DC		14
		+
RS 232 C interface

*) M561: Output A
M562: Output A and B
M563: Output A, B and C

If power supply is taken from the measured voltage internal connections are as follow:

Application (system)	Internal connection Terminal / System
Single-phase AC current	2 / 11 (L1 - N)
4-wire 3-phase symmetric load	2 / 11 (L1 - N)
All other (apart from feature 9, lines E, F and J)	2 / 5 (L1 - L2)

A B C RS 232 16151718 1920 1413121110987632154 IL1 IL1 IL2 IL2 IL3 IL3 UL1 UL2 UL3 N

Measuring inputs, acc. to measuring mode

	Measuring inputs
System / Application	Terminals
Single-phase AC system
4-wire 3-phase symmetric load I: L1
	Connect the voltage according to the following table for current measurement in L2 or L3:
	Current transf.	Terminals		2	11
	L2	1	3	L2	N
	L3	1	3	L3	N

Current transf.	Terminals		2	11
L2	1	3	L2	N
L3	1	3	L3	N

Measuring inputs
System /application	Terminals
3-wire3-phasesymmetricloadI: L1	Connect the voltage according to the following table for current measurement in L2 or L3:Current transf. Terminals 2 5 8L2 1 3 L2 L3 L1L3 1 3 L3 L1 L2
3-wire3-phasesymmetricloadPhase-shiftU: L1 - L2I: L1	Connect the voltage according to the following table for current measurement in L2 or L3:Current transf. Terminals 2 5L2 1 3 L2 L3L3 1 3 L3 L1
3-wire3-phasesymmetricloadPhase-shiftU: L3 - L1I: L1	Connect the voltage according to the following table for current measurement in L2 or L3:Current transf. Terminals 8 2L2 1 3 L1 L2L3 1 3 L2 L3

Current transf. Terminals 2 5 8
L2	1		3	L2	L3
L3	1		3	L3	L1

Current transf. Terminals 2 5
L2	1		3	L2
L3	1		3	L3

Current transf. Terminals 8 2
L2	1		3	L1
L3	1		3	L2

Measuring inputs
System /application	Terminals
3-wire3-phasesymmetricloadPhase-shiftU: L2 – L3I: L1	Connect the voltage according to the following tablefor current measurement in L2 or L3:
3-wire3-phaseasymmetricload
4-wire3-phaseasymmetricload	3 single-pole insulated voltage transformersin high-voltage system

Measuring input
System / application	Terminals
4-wire3-phase asymmetric load,Open Y connection
	Low-voltage system	2 single-pole insulated voltage transformers in high-voltage system

5. Commissioning

Prior to starting, check that the connection data of the transducer agrees with the system data (see type label).

The power supply to the transducer can then be switched on and the signals applied to the measuring inputs.

5 -A + RS Carnille Bauer AG Switzerland SINEAX M 561 Ord. 125831/1006319 3 A LF -1..-0.5..0 0..-5..-20mA 57.74V 1A 50Hz (440kV/57.74V 2500/1A) I1 U1 I1 I2 U2 2 I3 I3U3 N AC/DC 24-6CV 50/60Hz 7VA - ~ + 4

5 -A + -B + -C + RS A LF -1..-0.5..0 0..-5..-20mA B P 0..500..1100MW 0..-10mA C I 0..2500A 20..0..-5mA 57.74V 1A 50Hz (440kV/57.74V 2500/1A) - I1 U1 I1 I2 U2 I2 I3 I3U3 N Camille Bauer AG Switzerland SINEAX M 563 Ord: 125931/1006319 3.7 CE SE AC/DC 24-62V 50/60Hz 7VA - ~ + 4

Measuring input

Rated value of the input voltage Ur

Rated value of the input current Ir,

the figures in brackets are the ratios of the main, v.t's and

c.t's referred to Ur and Ir

Nominal frequency

System \~e.g. AC current

Measuring output, output signal

Power supply

1

Manufacturer

2

Works No.

3

Test and conformity mark

4

Terminals,

input quantities and power supply

5

Terminals, output quantities

Fig. 2. Declaration to type label.

5.1 Technical data

Symbols

Symbols	Meaning
X	Measured variable
X0 Lower	limit of the measured variable
X1 Break	point of the measured variable
X2 Upper	limit of the measured variable
Y	Output variable
Y0 Lower	limit of the output variable
Y1 Break	point of the output variable
Y2 Upper	limit of the output variable (Hardware)
Y2 SW	Programmed upper limit of the output variable
U	Input voltage
Ur	Rated value of the input voltage
U 12	Phase-to-phase voltage L1 – L2
U 23	Phase-to-phase voltage L2 – L3
U 31	Phase-to-phase voltage L3 – L1
U1N	Phase-to-neutral voltage L1 – N
U2N	Phase-to-neutral voltage L2 – N
U3N	Phase-to-neutral voltage L3 – N
I	Input current
I1 AC current L1
I2 AC current L2
I3 AC current L3
Ir	Rated value of the input current
IM	Average value of the currents (I1 + I2 + I3) / 3
IMS	Average value of the currents and sign of the active power (P)
IB	RMS value of the current with wire setting range (bimetal measuring function)
IBT	Response time for IB
BS	Slave pointer function for the measurement of the RMS value IB
BST Response time for BS
	Phase-shift between current and voltage
F Frequency of the input variable
Fn Rated frequency
P Active power of the system P = P1 + P2 + P3
P1 Active powerphase 1 (phase-to-neutral L1 - N)
P2 Active power phase 2 (phase-to-neutral L2 - N)
P3 Active power phase (phase-to-neutral L3 - N)
Q Reactive power of the system Q = Q1 + Q2 + Q3
Q1 Reactive power phase 1 (phase-to-neutral L1 - N)
Q2 Reactive power phase 2 (phase-to-neutral L2 - N)
Q3 Reactive power phase 3 (phase-to-neutral L3 - N)
S Apparent power of the system
S1 Apparent power phase 1 (phase-to-neutral L1 - N)
S2 Apparent power phase 2 (phase-to-neutral L2 - N)
S3 Apparent power phase 3 (phase-to-neutral L3 - N)
Sr Rated value of the apparent power of the system
PF	Active power factor = P/S
PF1 Active	power factor phase 1 P1/S1
PF2 Active	power factor phase 2 P2/S2
PF3 Active	power factor phase 3 P3/S3
QF	Reactive power = Q/S
QF1 Reactive power factor 1 Q1/S1
QF2 Reactive power factor 2 Q2/S2
QF3 Reactive power factor 3 Q3/S3
LF Power factor of the system LF = sgnQ · (1 - |PF|)
LF1 Power factor phase 1 sgnQ1 · (1 - |PF1|)
LF2 Power factor phase 2 sgnQ2 · (1 - |PF2|)
LF3 Power factor phase 3 sgnQ3 · (1 - |PF3|)
c Factor for the intrinsic error
R Output load
Rn Rated burden
H Power supply
Hn Rated value of the power supply
CT c.t. ratio
VT v.t. ratio

Measuring input

Waveform:

Sinusoidal

Rated frequency:

50 or 60 Hz

Consumption [VA] (with

external power supply): Voltage circuit: U² / 400 kΩ

Current circuit: ≤ P · 0.01 Ω

Thermal rating of inputs

Input variable	Number of inputs	Duration of overload	Interval between two overloads
Current circuit	400 V single-phase AC system693 V three-phase system
12 A — continu. —
120 A 10 1 s	100 s
120 A 5	3 s	5 min.
250 A 1	1 s	1 hour
Voltage circuit
480 V/831 V ^1	— contin.	—
600 V/1040 V ^1	10 10 s	10 s
800 V/1386 V ^1	10 1 s	10 s

^1 Maximum 264 V across the power supply when it is obtained from the measured variable with a power supply unit for 85 - 230 V DC/AC and maximum 69 V with a power supply unit for 24 - 60 V DC/AC.

Analog outputs

For the outputs A, B and C:

Output variable Y	Impressed DC current	Impressed DC voltage
Full scale Y2	1 ≤ Y2 ≤ 20 mA	5 ≤ Y2 ≤ 10 V
Limits of output signal for input overload and/or R = 0	1.2 · Y2	40 mA
	30 V	1.2 Y2
Rated useful range of output lead	0 ≤ 7.5 VY2 ≤ 15 VY2	22 mA ≤ 21 mA ≤∞
AC component of output signal (peak-to-peak)	≤ 0.01 Y2	≤ 0.01 Y2

The outputs A, B and C may be either short or open-circuited. They are electrically insulated from each other and from all other circuits (floating).

All the full-scale output values can be reduced subsequently using the programming software, but a supplementary error results.

System response

Accuracy class: (the reference value is the full-scale value Y2)

Measured variable	Condition Accuracy	class1)
System:Active, reactive and apparent power	0.5 ≤ X2/Sr ≤ 1.50.3 ≤ X2/Sr < 0.5	0.5 c1.0 c
Phase:Active, reactive and apparent power	0.167 ≤ X2/Sr ≤ 0.50.1 ≤ X2/Sr < 0.167	0.5 c1.0 c
Power factor, active power and reactive power	0.5Sr ≤ S ≤ 1.5 Sr,(X2 - X0) = 20.5Sr ≤ S ≤ 1.5 Sr,1 ≤ (X2 - X0) < 20.5Sr ≤ S ≤ 1.5 Sr,0.5 ≤ (X2 - X0) < 10.1Sr ≤ S < 0.5Sr,(X2 - X0) = 20.1Sr ≤ S < 0.5Sr,1 ≤ (X2 - X0) < 20.1Sr ≤ S < 0.5Sr,0.5 ≤ (X2 - X0) < 1	0.5 c1.0 c2.0 c1.0 c2.0 c4.0 c
AC voltage 0.1 Ur ≤ U ≤ 1.2 Ur 0.2 c
AC current/ current averages	0.1 Ir ≤ I ≤ 1.2 Ir 0.2 c
System frequency	0.1 Ur ≤ U ≤ 1.2 Ur resp.0.1 Ir ≤ I ≤ 1.2 Ir	0.15 + 0.03 c

^1) Basic accuracy 1.0 c for applications with phase-shift

Duration of the

measurement cycle: Approx. 0.6 to 1.6 s at 50 Hz, depending on measured variable and programming

Response time: 1 ... 2 times the measurement cycle

Factor c (the highest value applies):

Linear characteristic:

$$ c = \frac {1 - \frac {Y 0}{Y 2}}{1 - \frac {X 0}{X 2}} \text { or } c = 1 $$

Bent characteristic: X0 ≤ X ≤ X1

$$ c = \frac {Y 1 - Y 0}{X 1 - X 0 Y 2} \cdot \frac {X 2}{\text { or } c = 1} $$

X1 < X ≤ X2

$$ c = \frac {1 - \frac {Y 1}{Y 2}}{1 - \frac {X 1}{X 2}} \text { or } c = 1 $$

X0/Y0 X2/Y2 Limit of the output range

Fig. 3. Examples of settings with linear characteristic.

X0/Y0 X1/Y1 X2/Y2 Limit of the output range

Fig. 4. Examples of settings with bent characteristic.

(System response inversely confi gurable)

Infl uencing quantities and permissible variations

Acc. to IEC 688

Safety

Protection class: II (protection isolated, IEC 1010)

Enclosure protection: IP 40, housing (test wire, IEC 529) IP 20, terminals (test fi nger, IEC 529)

Pollution degree: 2

Installation category: III (with ≤ 300 V) II (with > 300 V)

Insulation test: Inputs: 300 V ^2) 600 V ^3) Power supply: 230 V Outputs: 40 V

Power supply →○

AC/DC power pack (DC or 50/60 Hz)

Rated voltage	Tolerance
24 - 60 V DC / AC	DC - 15 to + 33%AC ± 15%
85 - 230 V DC / AC

Power consumption: ≤ 5 W resp. ≤ 7 VA

Option

Power supply from measuring input

(self powered): ≥ 24 - 60 V AC or 85 - 230 V AC

Please note the max. and min. measuring input voltage!

Type label inscription(* acc. to appli-cation N or U2)	Input voltage range= internal power supply range	Tolerance	Power supply connec-tion
Self powered by U1/(int. 24-60 V)	24 - 60 V AC	± 15%	Internal measuring input
Self powered by U1/(int. 85-230 V)	85 - 230 V AC

^2) Overvoltage category III
^3) Overvoltage category II

Programming connector on transducer

The programming connector on the transducer is connected by the programming cable PRKAB 560 to the RS-232 interface on the PC. The electrical insulation between the two is provided by the programming cable.

Ambient conditions

Nominal range of use

for temperature: 0...15...30...45 °C

(usage group II)

Operating temperature: -10 to +55 °C

Storage temperature: -40 to + 85 °C

Annual mean

relative humidity: ≤ 75%

Altitude: 2000 m max.

Indoor use statement

5.2 Programming the transducer

The transducers SINEAX M561 / M562 / M563 have an integrated RS 232 C interface (SCI).

The existing programmation can be matched conveniently to a changed situation and stored via the "Confi guration software for M 560" (Order number 146 557).

For this purpose, the RS 232 output of the transducer must be connected to a PC via the RS 232 C (SCI) programming cable (Order number 147 779 and 143 587) and the transducer must be supplied with power supply.

The confi guration software has an easy-to-operate, clear menu structure which allows for the following functions to be performed:

• Reading and displaying the programmed configuration of the transducer
• Clear presentation of the input and output parameters
  • Transmission of changed programmation data to the transducer and for archiving of a file
• Protection against unauthorized change of the programmation by entry of a password
• Conf i guration of all the usual methods of connection (types of power system)

Configuration software for UNIX 906 File: Measured acquisition Service Options Help Information text Information text 3D characters Input Rated values Voltage (T) Primary Secondary Output 40.00 A 100.00 A Current 200 A 1.0 A Frequency 5 dB A B Hz Frequency measurement mA voltage System configurations a wire system, geometrical b wire system, geometrical (Wax) c wire system, geometrical (Wux-Y) d wire system, balanced load e wire system, balanced load Single-line system f wire system, balanced load (WZ,Y) g wire system, balanced load (WZ,Y) A B C A B C A B C A B C A B C A B C A B C

Fig. 5. Presentation of all programmation parameters in the main menu.

- Easy change of input and output parameters

WARNING: Watch for maximum input voltage on transducers with internal power supply connection from measuring input:

Power supply	Power supply connection	Maximum input voltage across the power supply
24 - 60 V AC Internal from measuring input		69 V AC
85 - 230 V AC		264 V AC

• Selection possible for frequency measurement via voltage or current
• Possibility to reset the slave pointer of the output quantity involved
• Parameter setting of outputs A to C (input of measured quantity, upper limits, limitation of upper limits and response time per output, possible up to max. 30 s)
  • Graphics display of the set system behaviour of each output

Fig. 6. Displaying, recording and evaluation of measurements.

Provision is also made for the following ancillary functions:

• Displaying, recording and evaluation of measurements on a PC
  • The simulation of the outputs for test purposes
• Printing of nameplates

6. Reconfiguring the analogue outputs

The alternative confi gurations for the analog outputs can be seen from Table 1.

Table 1:

Action	Procedure
Change the current full-scale value from, for example, 20 mA to 10 mA(a hardware setting always thas to be made when changing from a lower to a higher value)	Reconfi gure the software,but do not change the hardware setting.Accuracy is reduced.

Unauthorized repair of alteration of the unit invalidates the warranty!

7. Notes of maintenance

No maintenance is required.

8. Releasing the transducer

Release the transducer from a top-hat rail as shown in Fig. 7.

Diagram of a screwdriver holding a flat object with a tool, showing an arrow indicating direction (no text or symbols present)

Fig. 7

9. Dimensional drawing

112.5 114.1 1815 17 18 19 20 69.1 105 1413121119947632154

Fig. 8. Housing P20/105 clipped onto a top-hat rail (35 × 15 mm or 35×7.5 mm, acc. to EN 50 022.

10. Safety notes

● Before you start the device check for which power supply it is built.
- Verify that the connection leads are in good condition and that they are electrically dead while wiring the device.
- When it must be assumed that safe operation is no longer possible, take the device out of service (eventually disconnect the power supply and the input voltage!).

This can be assumed on principle when the device shows obvious signs of damage.

The device must only be used again after troubleshooting, repair and a final test of calibration and dielectric strength in our factory or by one of our service facilities.

- When opening the cover, live parts may be exposed.

Calibration, maintenance or repair with the device open and live must only be performed by a qualified person who understands the danger involved. Capacitors in the device may still be charged even though the device has been disconnected from all voltage sources.

11. Instrument admission

CSA approved for USA and Canada fi le-nr. 204 767

FCC Compliance and Canadian DOC Statement

This equipment has been tested and found to comply with the limits for a Class A digital device, pursuant to both part 15 of the FCC Rules and the radio interference regulations of the Canadian Department of Communications: These limits are designed to provide reasonable protection against harmful interference when the equipment is operated in a commercial environment. This equipment generates, uses and can radiate radio frequency energy and, if not installed and used in accordance with the instruction manual, may cause harmful interference to radio communications. Operation of this equipment in a residential area is like to cause harmful interference in which case the user will be required to correct the interference at his own expense.

12. Declaration of conformity

EG - KONFORMITÄTSERKLÄRUNG EC DECLARATION OF CONFORMITY

CAMILLE BAUER

Hersteller/ Manufacturer: Camille Bauer Metrawatt AG Switzerland

Anschrift / Address: Aargauerstrasse 7 CH-5610 Wohlen

Produktbezeichnung/ Programmierbarer Multi-Messumformer Product name: Programmable Multi-Transducers Typ / Type: SINEAX M561/M562/M563

The above mentioned product has been manufactured according to the regulations of the following European directives proven through compliance with the following standards:

Ort, Datum / Place, date:

Leiter Technik / Head of engineering

J. Brem

Qualitätsmanager / Quality manager