Whitey 131SR    max 200Psig 90°F 氣控閥

up to a maximum value. The separation converter requires no auxiliary
energy, the necessary energy is gained from the measuring signal.
With construction type GB, 2 independent channels are realisable
in one housing. The user friendly plug-in module technology
(construction type ST) enables quick and problem free assembly
with little space requirement.
Trunk transmission of current converter signals, galvanic
separation and coupling to systems with 0...20 mA inputs.
Application
Special characteristics
0–1 A 50 Hz sinus= AD-TW 21 GB/ST
0–5 A 50 Hz sinus= AD-TW 25 GB/ST
2x 0–1 A 50 Hz sinus= AD-TW 21/2 GB
2x 0–5 A 50 Hz sinus= AD-TW 25/2 GB
- for 1A AC or 5A AC - current transformer signals
- galvanically isolated output 0...20mA
- no auxiliary energy required, therefore less wiring, no warming up
Construction type: 1-ch. plug-in module "ST" incl. terminal
1-channel surface housing "GB"
2-channel surface housing "GB"
Power supply: passive, no power-supply necessary
Input:
Selfconsumption: approx. 1,6 VA
Output: 0-20mA DC, impressed
Output-load: max. 400 Ohm
Linearity: +/- 0,3%
Effect of load: -0,12% / 100 Ohm
Effect of temperature: -0,03% / 10 K
Settling time: < 0,5s (0-90%)
Ripple frequency: < 0,4% (with load 10 Ohm)
Insulation voltage: input/output: 2 kV RMS
El.-magnetic-compatibility: IEC 801-4 conform
IEC 801-5 conform
VDE 0875, curve B conform
Ambient temperature: 0-50°C
Specification
Printed 01/1999. We reserve the right for technical changes
Connections and dimensions:
AD-TW 21 GB (1-channel)
AD-TW 21/2 GB (2-channel)
AD-TW 25/2 GB (2-channel)
AD-TW 25 GB (1-channel)
Connections and dimensions:
AD-TW 21 ST (1-channel)
AD-TW 25 ST (1-channel)
63
1
8
7
6
5
4
3
2
9
100
80
4,2
21
95
~
1
8
7
6
5
4
3
2
9
+
~
~
~
+
input 1
output 1
input 2
output 2
3 4
1 2
output
0-20 mA
=
input
~~
42
102
output: 0-20 mA
26,8
ADAMCZEWSKI
AD-TW 25 ST
AC-SeparationConverter
no power-supply
input: 0-5 A
42
~ ~
3 4
1 2
~ ~
AD-TW 21 ST/GB
AD-TW 25 ST/GB
AD-TW 21/2 GB
AD-TW 25/2 GB
frame ground
100x63x95mm
(HxDxW)
protection: IP 30
weight: ca. 300g
weight: ca. 200 g
protection: IP 20
manner of fastening:
DIN rail 35mm (EN50022)
connection data:
fine-wire: 2,5 mm2
single-wire: 4,0 mm2
ADAMCZEWSKI
Elektronische Messtechnik GmbH
Felix-Wankel-Str. 13 74374 Zaberfeld
Tel. +49 (0)7046-875 Fax +49 (0)7046-7678
vertrieb@ad-messtechnik.de www.adamczewski.com
Isolation Transmitter AD-TWT 21 GS
AD-TWT 25 GS
Descrtption
Application
The passive AC isolator transformer serves as converter of sizes
0-1A AC or 0-5A AC in a non-conductive DC of 0-20mA. The
galvanically isolated input signal is independent of the connected
load up to a maximum value. The isolation transformer requires no
auxiliary energy, the necessary energy is gained from the
measuring signal. The user friendly plug-in module design enables
fast and problem free fitting with small space requirement.
Economical galvanical isolation and conversion of alternating
current signals in an impressed 4-20 mA signal with facile to
employ 2-wire-transmitter-technic.
Specification
Descrtption:
Construction type: 1-channel switchboard housing
-2-wire-transmitter technic, low wiring elaborateness
-high linear conversion with galvanical isolation
-output signal of 4-20 mA independent from supply voltage
-facile applicable plug-construction system on terminal block
- connection compatible for further passive Isolation transmitter.
Power supply: 8-32 V DC
Input: AD-TWT 21 ST: 0-1 A AC
AD-TWT 25 ST: 0-5 A AC
AD-TWT 61 ST: 0-400 V AC
each with 50 Hz, sinus
Power supply drop: no
Influence in temperature: < 150 ppm/K
Reaction time: ca. 700 ms (10-90%)
Output: 4-20 mA
Load: Rb= (Usp-8V) / 20 mA
Ripple frequency: max. 0,5% from the final value
Linearity: < 0,2 % from the final value
Isolation test voltage: 4 kV RMS
Ambient temperature: 0-50 °C
Protection: over voltage protection 39 V
over current protection approx.75 mA
over temperature protection
Printed 04/2008. We reserve the right for technical changes
Anschlussschema und Ma?e: AD-TWT 21 GS
 AD-TWT 25 GS
Gewicht: max. 150 g
Schutzart: IP 20
Befestigungsart
Normschiene: NS35/7,5
Anschlussdaten:
feindr?htig: 2,5 mm2
eindr?htig: 4 mm2
Spannung: 250 V~
103
78
39
7 8
10 11
23
9
12
ADAMCZEWSKI
Front view
1 2
7+ 8-
INPUT
OUTPUT
4-20 mA
=
~~
Transmitter feeding
 8-32 VDC
ADAMCZEWSKI
Elektronische Messtechnik GmbH
Felix-Wankel-Str. 13 74374 Zaberfeld
Tel. +49 (0)7046-875 Fax +49 (0)7046-7678
vertrieb@ad-messtechnik.de www.adamczewski.com
Isolation Transmitter
AD-TWT 21 ST
AD-TWT 25 ST
AD-TWT 61 ST
Descrtption
Application
The isolation 2-wire-transmitter impress into a supply voltage an
alternating signal into a linear direct current signal of 4-20 mA. Here
the output signal is isolated galvanically in further range
independent from the connected supply voltage.
Economical galvanical isolation and conversion of alternating
current signals in an impressed 4-20 mA signal with facile to
employ 2-wire-transmitter-technic.
Specification
Descrtption:
-2-wire-transmitter technic, low wiring elaborateness
-high linear conversion with galvanical isolation
-output signal of 4-20 mA independent from supply voltage
-facile applicable plug-construction system on terminal block
- connection compatible for further passive Isolation transmitter.
Power supply: 8-32 V DC
Input: AD-TWT 21 ST: 0-1 A AC
AD-TWT 25 ST: 0-5 A AC
AD-TWT 61 ST: 0-400 V AC
each with 50 Hz, sinus
Power supply drop: no
Influence in temperature: < 150 ppm/K
Reaction time: ca. 700 ms (10-90%)
Output: 4-20 mA
Load: Rb= (Usp-8V) / 20 mA
Ripple frequency: max. 0,5% from the final value
Linearity: < 0,2 % from the final value
Isolation test voltage: 4 kV RMS
Ambient temperature: 0-50 °C
Protection: over voltage protection 39 V
over current protection approx.75 mA
over temperature protection
Printed 04/2008. We reserve the right for technical changes
42
102
INPUT
OUTPUT
with
Transmitterfeeding
ADAMCZEWSKI
Isolation-Transmitter
AD-TWT 21 ST
Input: 0-1 A
output: 4-20 mA
feeding: 8-32 VDC
+
~ ~
20,8
33
ADAMCZEWSKI
Isolation Transmitter
AD-TWT 21 ST
Input: 0-1 A
output: 4-20 mA
feeding: 8-32 VDC
+
~ ~
Connections and dimensions: AD-TWT 21 ST
 AD-TWT 25 ST
 AD-TWT 61 ST
weight max. 200 g
protection: IP 20
manner of fastening:
attachment rail: NS35/7,5
connection data:
fine-wire: 2,5 mm2
single-wire: 4 mm2
max. voltage: 250 V~
ADAMCZEWSKI
Elektronische Messtechnik GmbH
Felix-Wankel-Str. 13 74374 Zaberfeld
Tel. +49 (0)7046-875 Fax +49 (0)7046-7678
vertrieb@ad-messtechnik.de www.adamczewski.com
Isolation Transmitter AD-TWT 24 GM
Descrtption
The isolation transmitter AD-TWT 24 GM in 2-wire-transmitter
technic impress into a supply voltage a standard measurement
signal of 4-20 mA. The output signal follows linear the input signal
up to a maximum value.
The connection of an additional auxiliary voltage is not necessary. It
obtains its auxiliary energy from the transmitter supply.
Application
Economical galvanical isolation of a active analog signal in a
impressed passive 4-20mA signal ( 2-wire-transmitter-technic).
Characteristics
-2-wire-transmitter technic, low amount of cabling
-high linear conversion with galvanical isolation
-output signal of 4-20 mA independent from supply voltage
Specification
construction type 1-channel switchboard housing
13 x 78 x 98 mm (width x height x dept)
input 0/4-20 mA
output 0/4-20 mA
for Transmitter supply 8-30V DC
temperature fluctuation <15 ppm/°K
reaction time: approx. 700 ms (10-90%)
input burden 2,7V (4V no load)
ripple frequency: max. 0,5% of max. value
linearity error <0,2% of max. value
insulation test voltage 500V rms
ambient temperature 0-50°C
protective systems: input against over-voltage
and polarity reversal
CE-conformity: EN 50081-2, EN 50082-2
Printed 01/2008. We reserve the right for technical changes
Connections and dimensions: AD-TWT 24 GM
3
4
13
103
78
39
active
analog signal
4-20 mA
transmitter signal
4-20 mA
+
4
+
3
2 1
Input
Output
weight: max. 150 g
protection: IP 20
manner of fastening:
attachment rail: NS35/7,5
connection data:
fine-wire: 2,5 mm2
single-wire: 4 mm2
ADAMCZEWSKI
Elektronische Messtechnik GmbH
Felix-Wankel-Str. 13 74374 Zaberfeld
Tel. +49 (0)7046-875 Fax +49 (0)7046-7678
vertrieb@ad-messtechnik.de www.adamczewski.com
R to I Converter
AD-MV 110 GS
AD-MV 110 GB
AD-MV 110 EV
Descrtption
The input of the AD-MV 110 R/I is a potentiometer with standard
range of 100-5000 Ohm. The analogous output is proportional to
the position of the potentiometer and is unaffected by the
connected load up to the maximum resistance: A precision
equalising potentiometer is included in the converter for zero and
maximum deflection.
Application
Continual display for altimeter; manometer-, level-, or valvepositions.
Specification
Power supply: GB/EV: 230 VAC or 20-30 VDC (*)
GS: ALLPOWER 20-253V AC/DC
Power consumption: approx. 5 VA or 2 W
Input: Potentiometer
0-100 Ohm to 0-5000 Ohm, adjustable
Adjustable tolerance: Potentiometer / Line resistance
100 Ohm 3x30 Ohm
500 Ohm 3x300 Ohm
1000 Ohm 3x500 Ohm
5000 Ohm 3x2000 Ohm
Output (*): current or voltage, impressed
e.g. 0-20 mA; 4-20 mA, 0-10 V
Output load: max. 500 Ohm at 20 mA
min. 500 Ohm at 10 V
Tolerance: < 0,5 %
Ambient temperature: 0 to +50 °C
Protective system: Power pack: against over-voltage;
over-current; over-temperature
Input: transient protection
EMC-compatible EN 50081-2, EN 50082-2
CE-conformity
(*) = Values must be advised by order
:
ADAMCZEWSKI
Elekt roni sche Mess techni k GmbH
Felix-Wankel-Str a?e 13 · 74374 Zaberfe ld
Telefon +49 (0)7046-875 · Telefax +49(0) 07046-7678
vertrieb@ad-messtechnik.de · www.adamczewski.com
Printed 04/2008. We reserve the right for technical changes
165
100
160
on
128,4 (3HE)
30,48 (6TE)
ADAMCZEWSKI
span.
103
zero
78
39
7 8
10 11
23
9
12
ADAMCZEWSKI
front view
1
8
7
6
5
4
3
2
9
160
100
80
4,2
21
output
+
~~
230 V, 50 Hz
20-30 VDC
b z
1
4
6
8
10
12
14
16
18
20
22
24
26
28
30
32
pin topview
+
input
zero
full scale
3
2
12
11
9
8
~
+
+~
input output
power supply
1 zero
full scale
1
2
3
4
5
6
7
8
9
+
~
~
+
power supply
sensor
outputsignal
zero
full scale
Connections and dimensions:
AD-MV 110 GB
weight max. 200 g
protection: IP 20
manner of fastening:
attachment rail: NS35/7,5
connection data:
fine-wire: 2,5 mm2
single-wire: 4 mm2
max. voltage: 250 V~
Connections and dimensions:
AD-MV 110 GS
Connections and dimensions:
AD-MV 110 EV
frame ground
95x100x63mm
protection: IP 30
weight: ca. 400g
on
AD-TV 300 GS
pin connector DIN 41612 Form F
Measuring Transducer AD-MW 200 ST
Descrtption:
All standard signals (0-20mA / 4-20mA / 1-10V) can be highly linear
converted and amplified from each other with the measuring
transducers of the AD-MW 200 ST family. The measuring signal
can be adapted to the current measuring situation by means of
trimming potentiometers positioned on the front side. The supply
voltage is separated galvanically from the measuring signal and is
possible within a wide range from 20-30V AC or DC. Because of
this internal galvanic separation, it is also possible to operate
several measuring transducers from only one supply voltage. An
economical alternative to isolation amplification when a galvanic
separation of the output is not technically relevant.
Application:
Technical data:
Acquisition, linear conversion and a high degree of amplification of
industrial standard signals in small plug module technology with the
possibility of measuring value corrections with a large voltage supply
range. Economical possibility for the conversion of already
galvanically separated signal sizes.
type: 1-channel program cartridge
inc. basic terminal
power supply: 20-30V AC/DC
internal galvanically separate
separate from input and output
power consumption: ca. 1 W
input: 0-20mA; 4-20mA; 0-10V (*)
input impedance: 50 Ohm with current-input
10 kOhm/V with voltage-input
output 0-20mA; 4-20mA; 0-10V (*)
 NOTE: no galvanic separation to the input
output load: max. 800 Ohm with current-input
min. 500 Ohm with voltage-input
linearity error: < 0,1 %′
influence of temperature:< 50 ppm/K
build-up time: ca. 2 ms (0-90%)
EMV-examinations: IEC 801-4 (transient) class 3
IEC 801-5 (impulse voltage) class 3
VDE 0875, curve B (radio interference)
ambient temperature: 0 - 50 °C
(*) values must be defined by order
Printed 08/2006. We reserve the right for technical changes
Connections and dimensions: AD-MW 200 GS weight 100 g
protection: IP 20
manner of fastening:
attachment rail: NS35/7,5
connection data:
fine-wire: 4 mm2
single-wire: 4 mm2
max. voltage: 250 V~
Order
specification
output 0-20 mA
output 4-20 mA
output 0-10 V
input
0-20 mA
MW 200 ST-22
MW 200 ST-24
MW 200 ST-21
input
4-20 mA
MW 200 ST-42
MW 200 ST-44
MW 200 ST-41
input
0-10 V
MW 200 ST-12
MW 200 ST-14
MW 200 ST-11 42
102
Output: 4-20 mA
 U=20-30 VDC
20,8
+A +U -A
+E -U -E
ADAMCZEWSKI
AD-MW 200 ST-D44
Null
span
input: 4-20 mA
42
(1) (3)
(4)
(2)
(5) (6)
1 +
3
input
4 +
6
output
~
2 +~
5
power-supply
20-30V AC/DC
ADAMCZEWSKI
Elektronische Messtechnik GmbH
Felix-Wankel-Str. 13 74374 Zaberfeld
Tel. +49 (0)7046-875 Fax +49 (0)7046-7678
vertrieb@ad-messtechnik.de www.adamczewski.com
AD-MV 500 GS
AD-MV 500 GB
Descrtption:
Application:
The AD-MV 500 converts the output signal of a resistor
thermometer (Pt100 or similar) into a proportional output signal
(0...20mA; 0...10V or others) The output linearity can be chosen
between resistance or temperature. If the 3 line application is used,
then cable resistance up to 100 Ohm are compensated. If only 2
lines are used then a zero and full-scale adjustment is necessary.
The analog output is galvanical separated to the power-supply and
optionally to the input signal too.
Temperature and temperature-difference measurement with
resistor thermometers like Pt100 or others. Analog display of
temperature.
Technical data:
(*) values must be defined by order
construction type: 1 channel switchboard housings
power supply: Allpower 20-253V AC/DC
power consumption: ca. 2VA or 2W
input: resistor thermometer Pt100
(DIN IEC 751) or other resistors
in 2-wire or 3-wire system
output: current or voltage
e.g. 0...20 mA; 4...20 mA; 0...10 V
galvanically isolated
resistive or temperature linear
max output load: max 800 Ohm with current
max 500 Ohm with voltage
linearity error: < 0,3%
influence of temperature: < 100 ppm/K
ambient temperature: 0...50°C
insulation test voltage: signal/power supply 4kV AC
signal/power supply 2kV DC
input/output
(optional isolated 2kV RMS)
protective system: power pack: against over voltage
overcorrect, over temperature
input/output: against over voltage
Printed 09/2011. We reserve the right for technical changes
Connections and dimensions: AD-MV 500 GS weight 120 g
protection: IP 20
manner of fastening:
attachment rail: NS35/7,5
connection data:
fine-wire: 2,5 mm2
single-wire: 4 mm2
max. voltage: 250 V~
103
78
39
7 8
10 11
23
9
12
ADAMCZEWSKI
Front view
span.
zero
ON
AD-MV 500 GS
2-wire
connection
2
1
3
7
8
11 ~+ 12
ALLPOWER
Power-supply
+
-
output
2-wire
connection
2
1
3
input
~-
2
1
3
t1
t2
temp.-
diverencemeasure
t1 > t2
Pt100-Converter
(galvanically insulated)
not available
ADAMCZEWSKI
Elektronische Messtechnik GmbH
Felix-Wankel-Str. 13 74374 Zaberfeld
Tel. +49 (0)7046-875 Fax +49 (0)7046-7678
vertrieb@ad-messtechnik.de www.adamczewski.com
1
8
7
6
5
4
3
2
9
160
100
80
4,2
21
housing
dimension
95x100x63mm
1
8
7
6
5
4
3
2
9
Connections and dimensions: AD-MV 500 GB
weight 260 g
protection: IP 30
manner of fastening:
attachment rail: NS35/7,5
connection data:
fine-wire: 2,5 mm2
single-wire: 4 mm2
max. voltage: 250 V~
1
2
3
4
5
6
7
8
9
~
~
+
Pt-100 Converter
AD-MV 500 GB
span
zero
on
230 VAC
Pt-100
Output
1
8
7
6
5
4
3
2
9
+
+~
~
power-supply
analog output
Input
3-wire
system
t t
1
8
7
6
5
4
3
2
9
Input
2-wire
system
+
+~
~
power-supply
analog output
Input
temp.
difference
measure
t1>t2
1
8
7
6
5
4
3
2
9
+
+~
~
power-supply
analog output
t1
t2
ADAMCZEWSKI
Elektronische Messtechnik GmbH
Felix-Wankel-Str. 13 74374 Zaberfeld
Tel. +49 (0)7046-875 Fax +49 (0)7046-7678
vertrieb@ad-messtechnik.de www.adamczewski.com
Descrtption
The AD-MV 504 GS converts the output signal of a resistor thermometer
(Pt100 or similar) from a 4-wire system into a proportional
output signal (0...20mA; 0...10V or others) The output linearity can
be chosen between resistance linear or temperature linear.
The analog output is galvanical separated to the power-supply and
optionally to the input signal too.
Temperature and temperature-difference measurement with resistor
thermometers like Pt100 or others. Analog display of temperature.

Application:
Specification
construction type: 1 channel switchboard housings
power supply: GS: Allpower 20-253V AC/DC
power consumption: ca. 2VA or 2W
input: resistor thermometer Pt100
(DIN IEC 751) or other resistors
in 4-wire system
output: current or voltage
e.g. 0...20 mA; 4...20 mA; 0...10 V
galvanically isolated
resistive or temperature linear
max output load: max 400 Ohm with current
max 500 Ohm with voltage
linearity error: < 0,3%
influence of temperature: < 100 ppm/K
insulation test voltage: input/output 2 kV rms
signal/power supply 4 kV rms
protective system: power pack: against over voltage
over correct and over temperature
input/output: against over voltage
ambient temperature: 0...50°C
(*) values must be defined by order
Printed 03/1994. We reserve the right for technical changes
Pt-100 Converter AD-MV 504 GS 103
78
39
7 8
10 11
23
9
12 7
8
11 12 + ~
ALLPOWER
POWER-SUPPLY
+
-
OUTPUT
4-wire
system
INPUT
~-
2
4
3
1
ADAMCZEWSKI
span.
zero
on
AD-MV 504 GS
for resistance thermometer in a 4-wire system
Connections and dimensions: AD-MV 504 GS weight 120 g
protection: IP 20
manner of fastening:
attachment rail: NS35/7,5
connection data:
fine-wire: 2,5 mm2
single-wire: 4 mm2
max. voltage: 250 V~
ADAMCZEWSKI
Elektronische Messtechnik GmbH
Felix-Wankel-Str a?e 13 · 74374 Zaberfe ld
Telefon +49 (0)7046-875 · Telefax +49 (0)7046-7678
vertrieb@ad-messtechnik.de · www.adamczewski.com
Descrtption
The measuring value amplifier AD-MV 50 GL (for 2/3 lead technology)
or AD-MV 54 GL (for 4-lead technology only) converts the measuring
signal issued from a resistance generator Pt-100 (according
to DIN IEC 751) to an impressed output signal (i.e. 0-20 mA or similar).
The output characteristic curve is issued temperature linear.
When using the 3-lead switching lead, resistance up to 100 Ohms
are compensated. In 2-lead switching a subsequent zero alignment
and full alignment via trim potentiometers at the front is possible.
The analogue output signal is galvanically separated from the
supply voltage.
A highly efficient, integrated electronic wide-range power pack
(ALLPOWER) enables operation with 20-253 V AC or DC. There is
no possibility of cross polarity of the connection voltage. A high
packing density is achieved due to its narrow build.
Application
Specification
Due to the use of a high quality electronic power pack, no strong temperature
increase occurs. The housings do not have to be fitted at a
distance from each other.
Construction type: 1 channel switchboard housing
Power supply: ALLPOWER 20...253 V AC/DC
internal galvanical separated
Power consumption: approx. 2,3 VA resp. 1,5 W
Input: Pt-100 (DIN IEC 751)
AD-MV 50 GL: 2- or 3-wire systems
AD-MV 54 GL: 4-wire system
Range of temperature: by customer specification
e.g. -10°C to+120°C
Output: impressed current or voltage
e.g. 0-20mA; 4-20mA; 0-10V DC (*)
Output load: max. 400 Ohm with current-output
min. 1 kOhm with voltage-output
Linearity error: < 0,2%
Influence of temperature: < 100 ppm/K
Insulation test voltage: signal/supply: 4 kV RMS AC/DC
Protective system: input/output against over-voltage
power supply against over-voltage,
over-current and over-temperature
CE-conformity: EN 50081-2, EN 50082-2
Ambient temperature: 0 to 50°C
(*) values must be specified by order
Printed 08/2009. We reserve the right for technical changes
Pt-100 Measuring Transducer AD-MV 50 GL
AD-MV 54 GL
Connections and dimensions:
AD-MV 50 GL (for Pt-100, 2- and 3-wire systems)
AD-MV 54 GL (für Pt-100, 4-wire system)
input
2-wire
system
3
2
4
input
4-wire
3 system
2
4
1
(only MV 54)
5
6
7~
+ 8
power-supply
+
-
output
3-wire
system
3
2
4
input
~-
5 6
7 8
18
103
78
39
ADAMCZEWSKI
on
AD-MV 50 GL
zero
span
weight: ca. 100 g
protection: IP 20
manner of fastening:
DIN rail: NS35/7,5
system data:
fine-wire: 2,5 mm2
single-wire: 4,0 mm2
max. voltage: 250 V~
ADAMCZEWSKI
Elektronische Messtechnik GmbH
Felix-Wankel-Str. 13 74374 Zaberfeld
Tel. +49 (0)7046-875 Fax (0)7046-7678
vertrieb@ad-messtechnik.de www.adamczewski.com
?
VarioCheck VC3
The VarioCheck AD-VC3 combines Isolation Amplifier, Measuring
Transducer, Indicating Device, Simulator,
.
Linearizer and Limit Switch in
one unit
ADAMCZEWSKI
E l e k t r o n i s c h e M e s s t e c h n i k G m b H
www.adamczewski.com
norm analogue signal
supply of transmitter
2 analogue outputs
4 limiting value relays
Digital Multi-function Measuring Transformer
Freely programmable digital measuring transformer
?
VarioCheck VC3
Function and applications
The digital multi-function measuring transformer of series VarioCheck VC 3 GVF are freely programmable digital
measuring transformer with two analogue outputs and up to 4 limiting value relays. Extensive standard equipment
and additional options solve almost all imaginable tasks of a modern evaluation. The input of all characteristics is
carried out directly at the device or, alternatively, via the configuration software ?VarioConfig“.
VarioCheck fulfils all tasks of a universal and secure measuring value recording through integral function modules
such as limiting value messages, freely adjustable hysteresis, selectable relay functions, time-delayed switching,
automatic or manual simulation modus, free linearizing curves and a wide range of supply voltage.
?
Features ?Bipolar voltage inputs ?Bipolar current input ?Supply of 2-/3-wire transmitter ?Potentiometer input ?Current and voltage output, differently scalable and can be utilised simultaneously ?Galvanic 3-circuit separation of input, output and supply. ?Error message with missing or defective sensor at measuring range 4-20 mA ?LCD for display of different operating modes, lit in several colours (R/Y/B). ?Display backlight detachable, display contrast adjustable
Freely definable scaling of the quantity to be measured through stating range, decimal
?
 point position and unit from the list or defined unit. ?Zoom function, expanded scale, linearizing, inverse modus ?Automatic or manual simulation operation ?Monitoring of the measuring signal with up to 4 freely adjustable limiting values ?Slave pointer function (saving min. and max. value) ?Locking the parameterizing via edit lock ?Non-volatile saving of all set parameter ?Menu languages switchable to: German, English, French
Pluggable and codable terminal strips
connecting diagram:
AD-VC 3 GVF R4
upper terminal designation
52 3 41 6 118 9 107 12
lower terminal designation
1714 15 1613 18 2320 21 2219 24
+Uh Sig. 0V
current
max. 20 mA
2-wiretransmitter
(4..20 mA)
3-wiretransmitter
 (0..20 mA)
potentiometer
 3-wire
CW CCW
outputs
inputs power-supply
voltage
max. 10 V
current
max. 20 mA
voltage
max. 10 V
(max. 1 V)
+ + +
+ +
1 9 2 9 3 1 3 1 9 7 8 9 19 20
13 14 15 21
(8) (9)
VarioCheck 3
AD-VC 3 GVF / R0
Allpower
50-253 V AC
20-253 V DC
 Brelay
10 11 12
 relay A
4 5 6
AD-VC 3 GVF / R2
 Drelay
22 23 24
 Crelay
16 17 18
AD-VC 3 GVF / R4
ADAMCZEWSKI Elektronische Messtechnik GmbH
 www.adamczewski.com
ADAMCZEWSKI
E l e k t r o n i s c h e M e s s t e c h n i k G m b H
Special functions of the multi-measuring transducer
?
VarioCheck VC3
For instance: ...the simulation mode
In simulation mode, the VC 3 GVF offers the possibility to specify the scaled value manually. This possibility
is, for instance, an important aid during commissioning, if no measuring values, or not the required measuring
values, from the process exist yet. All other device functions, such as limiting value editing and analogue output,
continue to function without limitation, as if the scaled value is derived from the measuring value. This
characteristic can also be utilised, for instance, to specify the nominal value on the analogue output.
For instance: ...the linearizing of characteristics
A free table with 24 x/y value pairs is available for characteristics linearizing. During this, it is very helpful that
the Y-values are entered already in scaled values. The characteristics data for a horizontal cylinder and a ball
container are already completely entered and have only to be activated.
For instance: ...the diversity of the limiting value functions
The limiting value functions can be set separately for each individual relay. Whether hysteresis function or
window function, time delays can also be defined singly for each operating mode. Also, the mode of
action of the relays can be adapted to the application.
For instance: ...the user-friendly operation
The device is equipped with three short-stroke keys at the front for operating, for display of the measuring
value and the parameter in a graphic display with clout background lighting and a communication interface
for configuration via a PC. The menu language can be defined directly in the device, the colour of the display
immediately indicates the operating mode or errors and with the PC-interface, the documentation of the complete
configuration is ensured.
For instance: ...the functional housing
With a width of only 33 mm and the proven clip foot, the device can be easily mounted. And with the standard
clamps, which can be pulled off, it can be clamped on without problems. The clear hood protects the device
against contamination and uncontrolled reconfigurations of the operating indicator.
Felix-Wankel-Str. 13 / 74374 Zaberfeld
Tel. +49 (0)7046-875 Fax +49 (0)7046-7678
vertrieb@ad-messtechnik.de
ADAMCZEWSKI
E l e k t r o n i s c h e M e s s t e c h n i k G m b H
Specification
?
VarioCheck VC3
Current input
Measuring range -20 mA to + 20 mA
Resolution/Accuracy 13 bit / 5 ìA
Input resistance 60 Ohm
Voltage input 10V
Measuring range -10 V...+10 V
Resolution/Accuracy 13 bit / 2,5 mV
Input resistance 1 Mohm
Voltage input 1V
Measuring range -1 V...+1 V
Resolution/Accuracy 13 bit / 250 ìV
Input resistance > 1 MOhm
Potentiometer input
Connection method 3-wire
Admissible total resistance 100 Ohm - 100 kOhm
Current output
Output range 0...20,4 mA
Resolution/Accuracy 10 bit / ca. 20 A
Maximum burden 500 Ohm
Residual ripple 20 ìAss
ì
Voltage output 10V
0 – 10,2 V
Resolution/Accuracy 10 bit / ca. 10 mV
Maximum burden 5 kOhm
Residual ripple 10 mVss
Output range
Relay outputs A...D
Version up to 4 change-over contacts
Max. switching voltage AC/DC 250 V AC / 50 V DC
Max. switching current AC/DC 2 A AC / 2 A DC
Transmitter supply
Supply voltage, no-load running 24,5 V
Supply voltage, 20mA 19,5 V
Current limiting ca.25 mA 91
128
110
33
VarioCheck VC3
AD-PC
up down set
ADAMCZEWSKI
Transient response
Rise time 100 ms (output to 90% with
input of 0-20mA)
Linearity error <0,2 % of end value
Temperature influence +/- 100 ppm/K of end value
Supply
supply voltage 20..253V DC and 50..253V AC
Max. power consumption
at 24V DC / 230V AC 2,6 W / 5 VA
Housing
Manner of fastening DIN rail 35mm, EN 50022
Type of protection IP20
Clamp cross section max. 2,5 mm2
Weight ca. 200 g
Environmental conditions
Admissible ambient temperature -10..60 °C
Storage and transport -10..70 °C
Galvanic separation, test voltages
Input to output 2,5 kV, 1 min
Input/output to auxiliary voltages 4 kV, 1 min
EMC EN 61326
Discharge static electricity, ESD IEC 61000-4-2
1) Electromagnetic fields IEC 61000-4-3
Quick transients, burst IEC 61000-4-4
Impulse voltage, surge IEC 61000-4-5
Route controlled HF-signals IEC 61000-4-6
Error transmission EN55011, CISPR11
class B, living area
1) During checking, slight signal deviations are possible
Dimensions AD-VC3 GVF
Printed 06/2009. We reserve the right for technical changes
Type key:
Type of device Charateristics
AD-VC3 GVF R0 - current and voltage inputs
- potentiometer inputs
- transmitter supply
- current output
- voltage output
- LCD display
AD-VC3 GVF R2 as AD-VC3 GVF R0,
however 2 relay outputs
AD-VC3 GVF R4 as AD-VC3 GVF R0,
however 4 relay outputs
Adamczewski GmbH Operating Instructions VC 3 GVF
ADAMCZEWSKI
Elektronische Messtechnik GmbH
Felix-Wankel-Strasse 13
74374 Zaberfeld
- GERMANY -
Phone +49 7046 875
Fax +49 7046 7678
Email info@ad-messtechnik.de
Internet www.adamczewski.com
Operating Instructions
Version: 1.0.4
Multi-function Measuring Transformer
VarioCheck
AD-VC 3 GVF/R0
AD-VC 3 GVF/R2
AD-VC 3 GVF/R4
1.0.5 1/28
ADAMCZEWSKI
E l e k t r o n i s c h e M e s s t e c h n i k G m b H
Adamczewski GmbH Operating Instructions VC 3 GVF
Contents
Function and applications....................................................................................................4
Features............................................................................................................................4
Type key...........................................................................................................................4
Technical data....................................................................................................................5
Current input.................................................................................................................5
Voltage input 10V...........................................................................................................5
Voltage input 1V.............................................................................................................5
Potentiometer input........................................................................................................5
Transmitter supply..........................................................................................................5
Current output 20mA......................................................................................................5
Voltage output 10V.........................................................................................................6
Relay outputs A..D.........................................................................................................6
Transient response.........................................................................................................6
Supply..........................................................................................................................6
Housing........................................................................................................................6
Environmental conditions................................................................................................7
EMC..............................................................................................................................7
Galvanic separation, test voltages....................................................................................7
LCD display...................................................................................................................7
Functional block diagram.................................................................................................8
Operating the device..........................................................................................................8
Display and operating elements...........................................................................................8
Operation..........................................................................................................................9
The operating modes..........................................................................................................9
Operating mode normal operation....................................................................................9
The status line.........................................................................................................11
Operating mode menu...................................................................................................11
Operating mode edit.....................................................................................................11
Operating mode error indication.....................................................................................11
Operating mode simulation............................................................................................12
Configuration ..................................................................................................................13
The menu tree.............................................................................................................13
Device parameter.........................................................................................................14
Input......................................................................................................................14
Trend......................................................................................................................14
Learning..................................................................................................................14
Scaling....................................................................................................................15
Characteristic...........................................................................................................15
Characteristics points................................................................................................16
Output....................................................................................................................16
Limiting value n........................................................................................................16
Simulation...............................................................................................................16
Display....................................................................................................................17
Parameter................................................................................................................17
Device functions...............................................................................................................18
Filtering the input signal................................................................................................18
Scaling and characteristic line........................................................................................18
Linear scaling...........................................................................................................19
Non-linear scaling via the user characteristic line..........................................................20
Non-linear scaling via a fixed characteristic line ...........................................................21
Limiting value function..................................................................................................22
Hysteresis function...................................................................................................22
Window function.......................................................................................................22
Trend function..........................................................................................................23
1.0.5 2/28
Adamczewski GmbH Operating Instructions VC 3 GVF
Simulation...................................................................................................................24
Setting the simulations parameter .............................................................................24
Starting Simulation ..................................................................................................24
Specifying the simulation values manually. .................................................................24
Shutting the simulation values down automatically as ramp...........................................24
Stopping the simulation.............................................................................................24
Connection pictures..........................................................................................................25
Terminal location..............................................................................................................25
Terminal allocation............................................................................................................26
Dimensional drawing.........................................................................................................27
Revisions.........................................................................................................................28
1.0.5 3/28
Adamczewski GmbH Operating Instructions VC 3 GVF
Function and applications
The digital multi-function measuring transformer of series VarioCheck VC 3 GVF are
freely programmable digital measuring transformer with two analogue outputs and up
to 4 limiting value relays. Alternatively, a bipolar voltage of up to 10 V, a bipolar
current of up to 20 mA or a potentiometer in three-wire method is possible as input
signal. Additionally, a a supply for 2 or 3 wire transmitter is integral. The inputs are
galvanic separated from the auxiliary voltage and from the outputs. The two analogue
outputs can be utilised simultaneously.
Extensive standard equipment and additional options solve almost all imaginable tasks
of a modern evaluation. The input of all characteristics is carried out directly at the
device or, alternatively, via the configuration software AD-Studio. An edit lock protects
the device against undesired parameter alteration. VarioCheck fulfils all tasks of a
universal and secure measuring value recording through integral function modules
such as limiting value messages, freely adjustable hysteresis, window comparer,
selectable relay functions, time-delayed switching, automatic or manual simulation
modus, free linearising curves and a wide range of supply voltage.
Features
? Bipolar voltage inputs
? Bipolar current input
? Supply of 2-/3-wire transmitter
? Potentiometer input
? Current and voltage output, differently scalable and can be utilised
simultaneously
? Galvanic 3-circuit separation of input, output and supply.
? Error message with missing or defective sensor at measuring range 4-20 mA
? LCD for display of different operating modes, lit in several colours (R/Y/B).
? Freely definable scaling of the quantity to be measured through stating range,
decimal point position and unit from the list or defined unit.
? Zoom function, expanded scale, linearising, inverse modus
? Automatic or manual simulation operation
? Monitoring of the measuring signal with up to 4 freely adjustable limiting values
(only variants /R2 and /R4)
? Slave pointer function (saving min. and max. value)
? Locking the parametrising via edit lock
? Non-volatile saving of all set parameter
? Pluggable and codeable terminal strips
Type key
Type of device Characteristics
AD-VC 3 GVF/R0 ● Current and voltage inputs,
● Potentiometer input,
● Transmitter supply,
● Current output,
● Voltage output,
● LCD display
AD-VC 3 GVF/R2 As AD-VC 3 GVF/R0, however 2 relay outputs
AD-VC 3 GVF/R4 As AD-VC 3 GVF/R0, however 4 relay outputs
1.0.5 4/28
Adamczewski GmbH Operating Instructions VC 3 GVF
Technical data
Current input
Measuring range -20,4 .. +20,4 mA
Resolution 13 Bit
Accuracy Approx. 5 uA
Input resistance 60 Ohm
Voltage input 10V
Measuring range -10,2 .. +10,2 V
Resolution 13 Bit
Accuracy Approx. 2.5 mV
Input resistance 1 MOhm
Voltage input 1V
Measuring range -1,02 .. +1,02 V
Resolution 13 Bit
Accuracy Approx. 250 uV
Input resistance >1 MOhm
Potentiometer input
Connection method 3-wire
Measuring principle Ratio, loop to supply
voltage.
Admissible total resistance 0.1 .. 100 kOhm
Transmitter supply
Supply voltage, no-load
running
24,5 V
Supply voltage, 20mA 19,5 V
Current limiting Approx. 25 mA
Current output 20mA
Output range 0 .. 20,4 mA
Resolution 10 Bit
Accuracy Approx. 20 uA
Maximum burden 500 Ohm
Residual ripple 20 uAss
Note: If the voltage output is used simultaneously, the two circuits must not be
connected externally with each other.
1.0.5 5/28
Adamczewski GmbH Operating Instructions VC 3 GVF
Voltage output 10V
Output range 0 .. 10,2 V
Resolution 10 Bit
Accuracy Approx. 10 mV
Minimum burden 5 kOhm
Residual ripple 10 mVss
Note: If the current output is used simultaneously, the two circuits must not be
connected externally with each other.
Relay outputs A..D
Version Up to 4 change-over
contacts
Max. switching voltage AC
Max. switching current AC
250
2
V AC
A AC
Max. switching voltage DC
Max. switching current AC
50
2
V DC
A DC
Transient response
Rise time output to 90%
with input of 0 to 20mA.
100 ms, digital filter off
Linearity error <0,2 % of end value
Temperature influence +/-100 ppm/K of end value
Supply
Supply voltage 50..253
20..350
V AC
V DC
Max. power consumption at
24V DC
2,6 W
Max. power consumption at
230V AC
5 VA
Housing
Dimensions WxHxD 33x110x128 mm
Material
Build-up DIN rail 35mm, EN 50022
Type of protection IP20
Connection method Screw clamps, can be
pulled off, 5mm grid
Clamp cross-section Max. 2.5 mm2
Weight Approx. 200 g
1.0.5 6/28
Adamczewski GmbH Operating Instructions VC 3 GVF
Environmental conditions
Admissible ambient
temperature
-10..60 °C
Storage and transport -10..70 °C
EMC
Product family standard EN 61326
Discharge static electricity, ESD IEC 61000-4-2
Electromagnetic fields 1) IEC 61000-4-3
Quick transients, burst IEC 61000-4-4
Impulse voltages, surge IEC 61000-4-5
Route controlled high-frequency signals IEC 61000-4-6
Error transmission EN55011, CISPR11
class B, living area
1) During checking, slight signal deviations are possible.
Galvanic separation, test voltages
Input to output 2,5 kV, 1min
Input/outputs to auxiliary
voltage
4 kV, 1min
Outputs among each other none
Input to programming
interface
none
LCD display
Resolution 42x64 pixel
Background lighting Three-colour red, green, blue
1.0.5 7/28
Adamczewski GmbH Operating Instructions VC 3 GVF
Functional block diagram
Operating the device
Display and operating elements
The device has at the front a graphic display with coloured background lighting and
the communication interface for configuration through a PC, for operating three short
stroke keys, for displaying the measuring value and the parameter.
1.0.5 8/28
Adamczewski GmbH Operating Instructions VC 3 GVF
Operation
The device is operated with the three keys, ?up“, ?down“ and ?set“. There are no
combinations of keys, which have to be pressed simultaneously. The keys are pressed
one at the time. The key function depends on the current operating mode. It is
differentiated between a short and a long key pressure. A long key pressure is
recognised after approx. 2s. Therefore, in the following, pressing the key means
pressing the key briefly, key pressure > 2 seconds means a long pressure.
Key Function
?up“ In normal operation, pressing this key returns you to the previous
display. In parametrising you navigate with this to the previous menu
element. When editing a parameter, the previous list element, or when
incrementing a digit, the selection is made with this key. The current
display is scrolled or the current parameter is incremented with a long
key pressure.
?down“ In normal operation, pressing this key takes you to the next display. In
parametrising you navigate to the next menu element. When editing a
parameter, the next list element, or decrementing a digit, the selection
is carried out with this key. The current display is scrolled or the
current parameter is incremented with a long key pressure.
?set“ In normal operation, pressing the key switches on the lighting. A long
key pressure changes to parametrising. In parametrising, the selected
element is selected with pressing the key. A long key pressure returns
you to the normal operation. During editing, pressing the key confirms
the selected list element or the edited digit. A long key pressure
returns you to parametrising.
The operating modes
The device is always in one of these operating modes, which are explained in more
detail in the following.
● Normal operation
● Menu
● Edit
● Error indicator
● Simulation
Operating mode normal operation
After switch on, the device is in normal operation and carries out all functions set in its
parameter. The indicator lighting is blue and goes off after approx. 2 minutes in
standard setting, if no other key has been pressed. The first line contains the heading,
the last line contains status information about relays and input signal. With a long key
depression, the device changes to operating mode parametrising. With the keys ?up“
and ?down“ you can switch between the following display views.
1.0.5 9/28
Adamczewski GmbH Operating Instructions VC 3 GVF
Display view Display image Comment
Scaled input
signal
Shows the scaled input signal with user-defined
decimal point position, unit and trend indication
T. For an explanation of this last item see trend
function.
Input signal Display of the selected input signal with unit
and trend indication. For an explanation of this
last item see trend function.
Outputs Display of both analogue output signals with
unit. The calculated nominal values are shown.
The device cannot recognised a short circuit or
an interruption in the current loop, therefore it
cannot show them.
Limiting values
A/B
limiting values
C/D
Shows the limiting values for relays A and B
(only with types /R2 and /R4).
Slave pointer Shows the min/max values of the scaled input
signal. The values can be reset with a long
depression of ?up“ or ?down“.
Info Shows the following device information:
● Type of device
● Version of firmware
● Production number
1.0.5 10/28
outp
10,00
mA
5,00
V
ABCD
sc si
12,34
T l/s
ABCD
sig
16,83
T mA
ABCD
lim nn
1,63
2,43
l/s
1,63
2,43
l/s
ABCD
MiMax
1,63
2,43
l/s
1,63
2,43
mA
ABCD
Info
VC3R4
V1.00
12345
67
ABCD
Adamczewski GmbH Operating Instructions VC 3 GVF
The status line
The last line in the display contains status information for the relays and the signal
condition. The max. four relays are marked with the capital letters 'A'..'D'.
Mark Meaning
1-4 ● 'N' Relay N is activated (also Relays 'A', 'B', 'C' or 'D')
● 'n' Relay N has been activated (indication only when the parameter
?save“ has been set to ?yes“ for this relay). Through pressing the
key ?set“, the flag can be deleted again.
● '-' Relays N is not activated.
● ' ' Space. No relay exists for this type of device.
5 ● In normal operation, the status of the measuring signal is shown
here. Arrow up/down ' ', ' ' shows that the measuring signal has ▲ ▼
exceeded/fallen below the set input measuring range. This indicator
is empty in the valid range.
● 'S' is shown in simulation modus. Exceeding of the measuring range
is not possible here.
Operating mode menu
A long depression of the key ?set“ takes you from normal operating mode to operating
mode menu. The indicator lighting is yellow. In the menu tree you can navigate up
and down with the keys ?up“ and ?down“. With pressing the key ?set“ the elements
are selected. This can be a parameter, a further sub-menu or also a device function,
such as contrast setting. Each menu offers as last entry the possibility to return to the
previous menu. The last entry is marked with an arrow to the left ?<“ (see also section
?The menu tree“). A long depression of the key ?set“ returns you to normal operating
mode. If no entry is made for approx. three minutes, you are also branched to the
normal operating mode.
Operating mode edit
Selecting a parameter with a short depression of the key ?set“ takes you from the
menu to the edit modus. The indicator lighting is white. Altered parameter become
effective immediately. If no entry is made for approx. three minutes, you are branched
to the menu again.
Parameter Indicator image Comment
Numeric
parameter
The current digit, which can be edited, is shown
inverse and can be incremented or
decremented with the keys ?up“ and ?down“.
When the last edited digit is confirmed with
?set“ and the digit has passed the data check,
the parameter is taken over. A long depression
on the key ?set“ cancels the entry and returns
to the menu.
Lists The current list element is shown inverse and
can be altered with the keys ?up“ and ?down“.
If the current list element is confirmed with the
key ?set“, the selected entry is taken over. A
long depression on the key ?set“ cancels the
entry and returns to the menu.
Operating mode error indication
After an error has occurred, you get to the error indication. The indicator lighting is
1.0.5 11/28
sig
420mA
10V
1V
Poti
020mA
filter
0004
s
0
Adamczewski GmbH Operating Instructions VC 3 GVF
red.
Type of error Indicator image Comment
Input error The faulty value is shown and must be
confirmed through pressing the key ?set“.
Signal error With the input signal type ?420mA“, the ?Live
Zero Signal“, that is the 4mA, is checked and a
line break is shown. The word ?Probe“ appears
in the indicator. The indication appears when
the signal has fallen below 2mA and it
disappears when 3mA has been exceeded
again. The key ?set“ suppresses the error for
approx. 3 minutes. If the error then still exists,
the indication appears again.
Operating mode simulation
With setting the relevant parameter in the menu you get to the operating mode
simulation. The indicator lighting is orange.
Type of
simulation
Indicator image Comment
Temporary,
automatic
To switch on the simulation, go to the
simulation menu and set the parameter for the
simulation mode to ?temporary“ or ?constant“.
The simulation is ended through setting the
simulation mode to ?off“ again, or when in
simulation mode ?temporary“ the simulation
time of approx. three minutes has expired.
1.0.5 12/28
error
10004
s
error
senso
sc si
12,34
l/s
ABCDS
Adamczewski GmbH Operating Instructions VC 3 GVF
Configuration
The menu tree
1.0.5 13/28
main menu
Analog value
limiting value
simulation
options
<
Analog value
input
scaling
characteristic
output
<
limiting value
limit value A
limit value B
limit value C
limit value D
<
limiting value n
type of action
function
switch points
saving
t on
t off
<
input
filter
Signal type
range
learning
<
scaling
unit
free unit
decimal point
range
<
characteristic
modus
number,points
points
<
output
0..20mA
0..10V
<
points
P1
...
P24
<
simulation
modus
range
increment
time pattern
<
options
display
parameter
<
display
contrast
lighting
language
<
parameter
edit
save
load
works values
<
learning
start
end
<
Adamczewski GmbH Operating Instructions VC 3 GVF
Device parameter
The following describes the device parameter and device functions, which can be
altered or executed in the menu.
Note: altered device parameter become effective immediately, even if you are still in
the menu.
Input
Name Factory setting Range Unit Comment
Filter 10 0..9999 s Input filter. 0 switches
the filtering off.
Type of signal ?020mA“ ?020mA“
?420mA“
?10V“
?1V“
?Poti“
Selection of the required
input signal.
Range 0..20
4..20
0..10
0..1
0..100
-20,4..+20,4
-20,4..+20,4
-10,2..+10,2
-1,02..+1,02
0..100
mA
mA
V
V
%
Range and unit depend
on the selected type of
signal.
Trend
Name Factory setting Range Unit Comment
Trend time 60 1..9999 s Time slot pattern in
which the trend is
ascertained cyclical.
Trend rising 10 1..9999 % Value signal difference
in scaled unit for
recognition of a rising
trend.
Trend falling 10 1..9999 % Value signal difference
in scaled unit for
recognition of a falling
trend.
Learning
Name Factory setting Range Unit Comment
Start The current measuring
value is shown. Pressing
?set“ takes over the
measuring value as
measuring range start.
End The current measuring
value is shown. Pressing
?set“ takes over the
measuring value as
measuring range end.
1.0.5 14/28
Adamczewski GmbH Operating Instructions VC 3 GVF
Scaling
Name Factory setting Range Unit Comment
Unit ?%“ ?l“, ?m3“,
?%, ?mWs“,
?mm“, ?cm“,
?m“, ?mbar“,
?bar“, ?psi“,
?WC“, ?Mpa“,
?°C“, ?mV“,
?V“, ?mA“,
?l/s“, ?l/min“,
?m3/h“, ?kg“,
?t“, ?s“,
?m/s“, ?km/h“
??“
Unit of the scaled
quantity. When selecting
the last unit in the list
??“, the free unit is used
instead.
Free unit ? ?“ Free unit, five
characters ASCIIcharacters
32 to 126,
that is space ' ' to tilde
'~'. To use the free unit,
under ?Unit“ select the
last unit in the list (??“).
Pad out with leading
spaces to achive a right
aligned string.
Decimal point "XXX,X", "XXXX",
"XXX,X",
"XX,XX",
"X,XXX",
Decimal point position
for indicating the scaled
value.
Range 0,0..100,0 -999..9999 ?Unit“
or
?Free
unit“
Scaling range , on which
the input signal is scaled
linear.
Characteristic
Name Factory setting Range Unit Comment
Modus "Off" "off"
"table"
"cylin"
"ball"
Determines the type of
characteristic editing.
For the user-defined
table, the entry ?Table“
must be selected and
the number of points
must be determined
under ?Number of
points“.
Number of
points
24 3..24 Number of supporting
points for the userdefined
table.
1.0.5 15/28
Adamczewski GmbH Operating Instructions VC 3 GVF
Characteristics points
Name Factory setting Range Unit Comment
P1
...
P24
0/0
...
20/100
mA/% X- and y-values or the
characteristic line. The
x-values correspond to
the input signal, the yvalues
to the scaled
quantity. The decimal
point and the unit
depend on the selection
of input signal and the
scaling parameter.
Output
Name Factory setting Range Unit Comment
Output 0..20mA 0..20 0..20,4 mA Current output range
Output 0..10V 0..10 0..10,2 V Voltage output range
Limiting value n
Name Factory setting Range Unit Comment
Type of action n
1)
?Work“ ?act“
?pass“
Action relay n. Full-load
current or closed-circuit
current.
Function n
1)
?Hyst“ ?off“
?hyst“
?windo“
Action relay n. No relay
editing, hysteresis or
window comparer.
Switch points n
1)
A: 10.0/20.0
B: 30.0/40.0
C: 50.0/60.0
D: 70.0/80.0
%
%
%
%
Switch points relays
A..D in scaled units.
Saving n
1)
?No“ ?no“
?yes“
Save responded relays
in the display as lower
case letter.
Response time
n
1)
0 0..9999 s Time delay before the
relay responds.
Release time n
1)
0 0..9999 s Time delay before the
relay releases.
1) n = 1..2 with device variant /R2 and 1..4 with device variant /R4.
Simulation
Name Factory setting Range Unit Comment
Modus ?Off“ ?Off“
?Temp“
?Const“
Determines the
operating mode of the
simulation. Simulation
off, temporary (switches
itself off after approx. 3
minutes) or constant
Range 0..100,0 % Simulation range in
1.0.5 16/28
Adamczewski GmbH Operating Instructions VC 3 GVF
scaled units.
Increment 1 1..9999 % Simulation increment in
scaled units.
Time slot
pattern
1 1..9999 s Simulation time slot
pattern
Display
Name Factory setting Range Unit Comment
Contrast 50 0..100 Display contrast is
altered during setting
and is permanently
saved through
confirming with ?set“. A
long depression of the
key ?set“ cancels the
value.
Lighting ?Auto“ ?Off“
?On“
?Auto“
Display lighting
permanently off,
permanently on or
automatic off approx.
Three minutes after the
last key has been
pressed.
Language ?ge“ ?ge“
?en“
?fr“
Indicator language
German, English or
French+.
Parameter
Edit ?Yes“ ?No“
?Yes“
Edit parameter release
or barring.
Save ?No“
?Yes“
Save current device
parameter in the
EEPROM.
Load ?No“
?Yes“
Load device parameter
from the EEPROM.
Factory setting ?No“
?Yes“
Execute function
?factory setting“. The
current device
parameter are
overwritten with the
works values. A reset is
carried out afterwards.
1.0.5 17/28
Adamczewski GmbH Operating Instructions VC 3 GVF
Device functions
Filtering the input signal
The input signal is transformed to a digital value via an analogue digital transducer
and is filtered digital prior to any further processing. The raw value of the A/Dtransducer
is filtered during each programme through-run with the following function:
Xt=
XtX t?1?F?1
F
whereby X is the A/D-transducer value, t is the time of the current measuring, t-1 is
the time of the last measuring and F is the filter value. For the VC 3 GVF, the following
approximate step response times result (0..90%)
F t/ms
0 100
10 200
20 300
30 400
40 500
50 600
100 1.2s
250 3s
500 6s
1000 12s
2000 24s
...
9999 approx. 120s
Scaling and characteristic line
The analogue input can be scaled on a user-defined capacity for indication and for
entering defined parameter. The switch points of the limiting values, the simulation
range, the simulation increment and the Y-values of the user characteristic line are
shown scaled and entered. With linear scaling, the scaling range form the scaling
parameter is used. With non-linear scaling, either the user-defined characteristic line
or one of the fixed characteristic lines is used. The following parameter must be
observed (Yes) or they are not important with this (No).
Parameter Linear, no
characteristic line
Not linear, user
characteristic line
Not linear, fixed
characteristic line
Characteristic line
modus
?Off“ ?Table“ ?Cylin“ or ?Ball“
Number of characteristic
line points
No Yes No
Characteristic line
points
No Yes No
Scaling range Yes No Yes
Scaling decimal
point, scaling unit
Yes Yes Yes
Input measuring
range
Yes No yes
1.0.5 18/28
Adamczewski GmbH Operating Instructions VC 3 GVF
Linear scaling
The following example shows the connection between analogue input, scaled quantity
and the analogue output with linear scaling.
Application: filling level measuring in a 5000 litre tank with an immersion probe
4..20mA. At the measuring range start of 4mA, there is a remaining quantity of 100
litres in the tank. With 5000 litres, the probe current is 18mA. The output is to be l
4..20mA.
Settings: input current input 0..20mA or 4..20mA; measuring range 4..18mA; scaling
range 100..5000; scaling unit ?l“; scaling decimal point ?xxxx“ (no decimal point)
Measuring: first, convert the measuring signal of 7.4mA to the scaled quantity. This
results in a value of 1290l. This value is now converted onto the output, whereby this
results in an output current of 7.9mA.
Note: If the measuring signal falls below or exceeds the set measuring range of
4..18mA, the scaled value, and therefore also the output, is connected to the starting
value or end value.
1.0.5 19/28
0 4 7,4 18 20
5000
1290
 100
 0
volume/l
0 100 1290 5000
 20
 7,9
 4
 0
output/mA
Adamczewski GmbH Operating Instructions VC 3 GVF
Non-linear scaling via the user characteristic line
The following example shows the connection between analogue input, scaled quantity
and the analogue output with non-linear scaling via the user characteristic line.
Application: filling level measuring in a 4500 litre tank with an immersion probe
4..20mA. At measuring range start of 4mA, a remaining quantity of 150 litres is in the
tank. At 4500 litres, the probe current is 17mA. The output is to be 4..20mA. The
characteristic line has been ascertained through the following value pairs.
Input/mA Volume/l
4 150
10 1350
13 3850
17 4500
Settings: Input current input 0..20mA or 4..20mA; the setting of the measuring range
and the scaling range is not applicable, as values from the characteristic line are
interpolated; scaling unit ?l“; scaling decimal point ?xxxx“ (no decimal point); number
of characteristic line points 4; points according to table.
Measuring: First, the measuring signal of 7.4mA is interpolated from the characteristic
line. This results in a scaled value of 830l. This value is now converted linear to the
output, whereby this results in an output current of 6.5mA.
Note: if the measuring signal falls below or exceeds the first or the last value from the
table, the scaled value, and therefore also the output, is connected to the starting
value or end value.
1.0.5 20/28
0 4 7,4 10 13 17 20
4500
3850
1350
 830
 150
 0
volume/l
input/mA
0 150 830 4500
 20
 6,5
 4
 0
output/mA
volume/l
Adamczewski GmbH Operating Instructions VC 3 GVF
Non-linear scaling via a fixed characteristic line
Apart from the user-defined characteristic line, fixed characteristic lines can be used
for predetermined applications. The characteristic of this characteristic line, in contrast
to the user-defined characteristic line, is connected in the selected input measuring
range. The following fixed characteristic lines can be set via the parameter
characteristic line modus.
Characteristic
line modus
Function
?Cylin“ Filling level calculation via the filling level h of a horizontal cylindrical
round tank with radius r. The filling level is specified typically
through a pressure transmitter. The characteristic of the
characteristic line is determined through the surface of the circular
segment and connected between the measuring range start and the
measuring range end. The length of the tank l results indirectly from
the tank volume, which is specified as scaling end.
V =r
2
arccos1?
h
r
?2rh?h
2?r?h?l
?Ball“ Filling level calculation via the filling level h of a ball-shaped tank.
The filling level is typically specified through a pressure transmitter.
The volume of the tank is specified through the scaling data.
V =
h?2
3
?3r?h
1.0.5 21/28
Adamczewski GmbH Operating Instructions VC 3 GVF
Limiting value function
The limiting value function can be set for each single relay. The terms ?active“ and
?passive“ or ?not active“ refer to the logic of the limiting value function. Whether the
relay responds or releases during activated function depends on the setting of the type
of action for this relay. Here, full-load current means responded with activated function
and not responded with not activated function. With closed-circuit current the reverse
is true.
Hysteresis function
The hysteresis function becomes active when the measuring value has exceeded the
upper switch point and the switch-on delay tvon has expired. It becomes passive
again when the measuring value falls below the lower switch point and the switch-off
delay has expired.
Window function
The window function becomes active when the measuring value lies between the
upper and the lower switch point and the switch-on delay time tvon is expired. It
becomes passive again when the resuming value falls below the lower switch-point or
the upper switch point is exceeded and the switch-off delay is expired.
1.0.5 22/28
input
time
 tvon tvoff
hysteresis
upper
switchpoint
lower
switchpoint
input
time
tvon tvoff tvon tvoff
limit comparator
upper
switchpoint
lower
switchpoint
Adamczewski GmbH Operating Instructions VC 3 GVF
Trend function
The trend function shows the trend of the input signal over time. For this, the present
measuring value is frozen at certain intervals, the trend time, and at the end of the
trend time, the frozen value is compared to the current measuring value, plus or
minus a parametrisable trend difference. This comparison results in a rising, falling or
invariable trend.
rising trend=datatdatat(yī)?trend timetrend rising 
falling trend=datat datat(yī)?trend time?trend falling 
otherwise
constant trend
In normal mode, the trend can be read off in the display for the input signal and the
scaled input signal in the unit line left, underneath the numerical value of the signal.
The arrow up ?▲“ means rising signal trend, the arrow down ?▼“ means a falling signal
trend and the equal sign ?=“ means an invariable signal trend. For parametrising the
trend function, three parameter are available, ?Trend time“, ?Trend rising“ and ?Trend
falling“. The trend information rising, falling or invariable signal can also be displayed
through the relay outputs. For this, the relay function of the corresponding entry must
be selected from the list. Each relay can take on a different relay function, for
instance, relay A can show the rising trend, relay B can show the invariable trend. The
function invariable trend in connection with a long trend time can be utilised for
monitoring a sensor, to monitor signal standstills, i.e. with stuck mechanical
transmitters. In the illustration, relay A is configured for display of rising trends and
relay B is configured for display of an invariable trend. Note: The trend information is
only determined at the end of the trend time. With long trend times, this can possibly
lead to confusion, if the trend of the monitored signal reverses several times during
the trend time, when the trend of the last interval is still displayed.
1.0.5 23/28
input
trend function
time
 tT tT tT tT tT
? ▲ ▲ = ▼
relay
 A
 B
time
Adamczewski GmbH Operating Instructions VC 3 GVF
Simulation
In simulation mode, the VC 3 GVF offers the possibility to specify the scaled value
manually. This possibility is an important aid, for instance, during commissioning,
when there are still no, or not the required, measuring values available from the
process.
Note: All other device functions such as limiting value, editing and analogue output
remain functioning without limitation, as if the scaled value had been derived from the
measuring value. This characteristic can be utilised very well, for instance, for the
nominal value specification at the analogue output.
Setting the simulations parameter
To set the simulation parameter, the parameter from the simulation menu must be
checked or altered. Set the simulation modus to ?Temp“, when the simulation mode is
to be cancelled automatically after approx. 3 minutes and the device returns to normal
mode. Set the simulation modus to ?Const“ when the simulation mode should remain
permanently switched on.
The limits for the simulation value are set with the simulation range. The increment
determines the increment, around which the manual or automatic
incrementing/decrementing is carried out. The time slot pattern specifies in seconds
the interval during automatic incrementing/decrementing.
Note: The simulation modus is saved non-volatile. After switching the device off and
then on again, it is still in simulation modus!
Starting Simulation
After the simulation modus has been set to ?Temp“ or ?Const“, long depression of the
?set“ in the menu. Instead of changing to the normal mode, the device now goes into
simulation mode and displays the scaled value.
Note: the last value from the normal mode is taken over as starting value in
simulation mode.
Specifying the simulation values manually.
Starting with the start value, the simulation value is increment or decrement by the
increment through pressing the key ?up“ or “down“.
Shutting the simulation values down automatically as ramp
With a long pressure on the key ?up“ or “down“, the simulation value in the specified
time slot pattern is automatically incremented or decremented. If the simulation value
has reached the end or the beginning of the simulation range, the direction reverses
automatically. The automatic mode can be ended again with pressing the key ?up“ or
?down“.
Stopping the simulation
The simulation can be stopped through setting the simulation modus in the simulation
menu again to ?off“. If the simulation mode is set to ?Temp“, the function stops
automatically after approx. 3 minutes.
1.0.5 24/28
Adamczewski GmbH Operating Instructions VC 3 GVF
Connection pictures
Terminal location
1.0.5 25/28
current
20 mA
output
voltage
10 V
13 14 15 21 4 5 6 10 11 12 16
relay A relay B relay C relay D
17 18 22 23 24
broad range
50..253 VAC or 20..350 VDC
power-supply
19 20
current
± 20 mA
input
voltage
 10 V±
voltage
1 V±
2-wire
transmitter
4..20 mA
3-wire
transmitter
4..20 mA
potentiometer 3-wire
3 1 9 7 8 9
S ig
1 9 2 9 8 9 3 1
C W R C C W
upper terminal location
lower terminal location
52 3 41 6 118 9 107 12
1714 15 1613 18 20 212219 23 24
Adamczewski GmbH Operating Instructions VC 3 GVF
Terminal allocation
Terminal Function
1 Input -20..20mA, 4..20mA
2 Input -10..10V
3 Sensor supply 24VDC
4 Relay A NO
5 Relay A NC
6 Relay A COM
7 Input potentiometer CW
8 Input potentiometer wiper, input -1..1V
9 Input potentiometer CCW, input mass
10 Relay B NO
11 Relay B NC
12 Relay B COM
13 Output 0/4..20mA
14 Output 0/4..20mA mass 1)
15 Output 0..10V
16 Relay C NO
17 Relay C NC
18 Relay C COM
19 Supply
20 Supply mass, N
21 Output 0..10V mass 1)
22 Relay D NO
23 Relay D NC
24 Relay D COM
1) When using both outputs, there must not be a galvanic connection between these
terminals.
1.0.5 26/28
Adamczewski GmbH Operating Instructions VC 3 GVF
Dimensional drawing
1.0.5 27/28 91
128
110
33
VarioC heck VC 3
AD -P C
up d o w n s et
ADAMCZEWSKI
Adamczewski GmbH Operating Instructions VC 3 GVF
Revisions
Revision Date Comment
1.0.0 01.05.2008 Document created.
1.0.1 17.09.2008 Separate parameter for response and falling off times for
the relays added.
1.0.2 14.01.2009 Links to external pictures released.
1.0.3 28.01.2009 Unit lists extended with ?m/s“ and ?km/h“.
1.0.4 16.02.2009 Descrtption of trend function added. Parameter relay
function extended, parameter added to trend setting.
Contents extended on 3 levels.
1.0.5 20.01.2010 Detailed descrtption of the parameter “free unit”
1.0.5 28/28
?
VarioCheck VC5
The VarioCheck AD-VC5 combines Isolation Amplifier, TemperatureMeasuring-Transducer,
Indicating Device, Simulator, Linearizer and
Limit Switch in one unit.
ADAMCZEWSKI
E l e k t r o n i s c h e M e s s t e c h n i k G m b H
www.adamczewski.com
for thermocouples
resistance thermometer
2 analogue outputs
4 limiting value relays
Digital Temperature Measuring Transducer
Freely programmable digital measuring transformer
?
VarioCheck VC5
Function and applications
The digital multi-function measuring transformer of series VarioCheck VC 5 GVF are freely programmable digital
measuring transformer with two analogue outputs and up to 4 limiting value relays. Extensive standard equipment
and additional options solve almost all imaginable tasks of a modern evaluation. The input of all characteristics is
carried out directly at the device or, alternatively, via the configuration software ?VarioConfig“.
VarioCheck fulfils all tasks of a universal and secure measuring value recording through integral function modules
such as limiting value messages, freely adjustable hysteresis, selectable relay functions, time-delayed switching,
automatic or manual simulation modus, free linearizing curves and a wide range of supply voltage.
Features
??Thermocouples inputs, types J, T, K, E, N, S, R, B
?Resistance thermometer inputs, types Pt/Ni 100, Pt/Ni 500, Pt/Ni 1000
?mV - Voltage input
?Internal and external reference junction
?Current and voltage output, differently scalable and can be utilised simultaneously
?Galvanic 3-circuit separation of input, output and supply
?Error message with missing or defective sensor at measuring range 4-20 mA
?LCD for display of different operating modes, lit in several colours (R/Y/B)
?Display backlight detachable, display contrast adjustable
Freely definable scaling of the quantity to be measured through stating range, decimal
?
 point position and unit from the list or defined unit. ?Zoom function, expanded scale, Linearizing, inverse modus
?Automatic or manual simulation operation
?Monitoring of the measuring signal with up to 4 freely adjustable limiting values
?Slave pointer function (saving min. and max. value)
?Locking the parameterizing via edit lock
?Non-volatile saving of all set parameter
?Menu languages switchable to: German, English, French
Pluggable and codable terminal strips
connecting diagram:
AD-VC 5 GVF R4
upper terminal designation
52 3 41 6 118 9 107 12
lower terminal designation
1714 15 1613 18 2320 21 2219 24
terminal 9 for Pt/Ni 100
terminal 8 for Pt/Ni 500
terminal 7 for Pt/Ni 1000
*
AD-VC 5 GVF / R0
VarioCheck 5
inputs
outputs
19 20
power-supply
Allpower
50-253 V AC
20-253 V DC
*
321
 RTD
4- wire
*
321
 RTD
3- wire
*
321
 RTD
2- wire
32
+
 TC
+
voltage
max. 10 V
+
15 21
current
max. 20 mA
13 14
 relay B
10 11 12
 relay A
4 5 6
AD-VC 5 GVF / R2
 relay D
22 23 24
 relay C
16 17 18
AD-VC 5 GVF / R4
ADAMCZEWSKI Elektronische Messtechnik GmbH
 www.adamczewski.com
ADAMCZEWSKI
E l e k t r o n i s c h e M e s s t e c h n i k G m b H
Special functions of the multi-measuring transducer
?
VarioCheck VC5
For instance: ...the simulation mode
In simulation mode, the VC 3 GVF offers the possibility to specify the scaled value manually. This possibility
is, for instance, an important aid during commissioning, if no measuring values, or not the required measuring
values, from the process exist yet. All other device functions, such as limiting value editing and analogue output,
continue to function without limitation, as if the scaled value is derived from the measuring value. This
characteristic can also be utilised, for instance, to specify the nominal value on the analogue output.
For instance: ...the linearizing of characteristics
A free table with 24 x/y value pairs is available for characteristics linearizing. During this, it is very helpful that
the Y-values are entered already in scaled values. The characteristics data for a horizontal cylinder and a ball
container are already completely entered and have only to be activated.
For instance: ...the diversity of the limiting value functions
The limiting value functions can be set separately for each individual relay. Whether hysteresis function or
window function, time delays can also be defined singly for each operating mode. Also, the mode of
action of the relays can be adapted to the application.
For instance: ...the user-friendly operation
The device is equipped with three short-stroke keys at the front for operating, for display of the measuring
value and the parameter in a graphic display with clout background lighting and a communication interface
for configuration via a PC. The menu language can be defined directly in the device, the colour of the display
immediately indicates the operating mode or errors and with the PC-interface, the documentation of the complete
configuration is ensured.
For instance: ...the functional housing
With a width of only 33 mm and the proven clip foot, the device can be easily mounted. And with the standard
clamps, which can be pulled off, it can be clamped on without problems. The clear hood protects the device
against contamination and uncontrolled reconfigurations of the operating indicator.
Felix-Wankel-Str. 13 / 74374 Zaberfeld
Tel. +49 (0)7046-875 Fax +49 (0)7046-7678
vertrieb@ad-messtechnik.de
ADAMCZEWSKI
E l e k t r o n i s c h e M e s s t e c h n i k G m b H
Specification
?
VarioCheck VC5
Relay outputs A...D
Version up to 4 change-over contacts
Max. switching voltage AC/DC 250 V AC / 50 V DC
Max. switching current AC/DC 2 A AC / 2 A DC
91
128
110
33
VarioCheck VC5
AD-PC
up down set
ADAMCZEWSKI
Type key:
Transient response
Rise time 100 ms (output to 90% with
input of 0-20mA)
Linearity error <0,2 % of end value
Temperature influence +/- 100 ppm/K of end value
Supply
supply voltage 20..253V DC and 50..253V AC
Max. power consumption
at 24V DC / 230V AC 2,6 W / 5 VA
Housing
Manner of fastening DIN rail 35mm, EN 50022
Type of protection IP20
Clamp cross section max. 2,5 mm2
Weight ca. 200 g
Environmental conditions
Admissible ambient temperature -10..60 °C
Storage and transport -10..70 °C
Galvanic separation, test voltages
Input to output 2,5 kV, 1 min
Input/output to auxiliary voltages 4 kV, 1 min
EMC EN 61326
Discharge static electricity, ESD IEC 61000-4-2
1) Electromagnetic fields IEC 61000-4-3
Quick transients, burst IEC 61000-4-4
Impulse voltage, surge IEC 61000-4-5
Route controlled HF-signals IEC 61000-4-6
Error transmission EN55011, CISPR11
class B, living area
1) During checking, slight signal deviations are possible
Dimensions AD-VC5 GVF
Current output
Resolution/Accuracy 10 Bit / ca. 20 μA
Maximum burden 500 Ohm
Residual ripple 20 μAss
Output range 0...20,4 mA
Voltage output 10V
Resolution/Accuracy 10 bit / ca. 10 mV
Maximum burden 5 kOhm
Residual ripple 10 mVss
Output range 0 – 10,2 V
Resistance thermometer
Pt 100, 500, 1000 (EN 60751) -200 .. +850 °C
Ni 100, 500, 1000 (EN 43760) -60 .. +230 °C
Connection method 2-, 3-, und 4-wire
Resolution/Accuracy 16 bit / 0,5°K
thermocouples
J, T, K, E, N, S, R, B (EN 60584)
Reference junction internal / external
Resolution/Accuracy 16 bit / 0,2%
Voltage input 18 mV
Measuring range
Resolution/Accuracy 16 bit / 1 μV
Input resistance > 1 MOhm
-18 .. +18 mV
Voltage input 36 mV
Measuring range -36 .. +36 mV
Resolution/Accuracy 16 bit / 1 μV
Input resistance > 1 MOhm
Voltage input 72 mV
Measuring range -72 .. +72 mV
Resolution/Accuracy 16 bit / 2,5 μV
Input resistance > 1 MOhm
Voltage input 144 mV
Measuring range -144 .. +144 mV
Resolution/Accuracy 16 bit / 5 μV
Input resistance > 1 MOhm
Printed 06/2009. We reserve the right for technical changes
Type of device Charateristics
AD-VC5 GVF R0 - r
- thermocouples
- mV-voltage input
- current output
- voltage output
- LCD display
AD-VC5 GVF R2 as AD-VC5 GVF R0,
however 2 relay outputs
AD-VC5 GVF R4
esistance thermometer
as AD-VC5 GVF R0,
however 4 relay outputs
Adamczewski GmbH Operating Instruction VC 5 GVF
ADAMCZEWSKI GmbH
Felix-Wankel-Strasse 13
74374 Zaberfeld
- GERMANY -
Phone +49 7046 875
Fax +49 7046 7678
Email info@ad-messtechnik.de
Internet www.adamczewski.com
Operating Instructions
Version: 1.0.0
Multi-function Temperature Transducer
AD-VC 5 GVF/R0
AD-VC 5 GVF/R2
AD-VC 5 GVF/R4
1.0.0 1/27
Adamczewski GmbH Operating Instruction VC 5 GVF
Contents
Function and applications....................................................................................................4
Features............................................................................................................................4
Type key...........................................................................................................................4
Technical data....................................................................................................................5
Resistance thermometer Pt100, Pt500, Pt1000 (DIN EN 60751)...........................................5
Resistance thermometer Ni100, Ni500, Ni1000 (DIN 43760)................................................5
Thermocouple J, T, K, E, N, S, R, B (DIN EN 60584)...........................................................5
Voltage input +/18mV.....................................................................................................5
Voltage input +/-36mV...................................................................................................6
Voltage input +/-72mV...................................................................................................6
Voltage input +/-144mV..................................................................................................6
Current output 20mA......................................................................................................6
Voltage output 10V.........................................................................................................6
Relay outputs A..D.........................................................................................................6
Response characteristic...................................................................................................7
Supply..........................................................................................................................7
Housing........................................................................................................................7
Environmental conditions................................................................................................8
EMC..............................................................................................................................8
Galvanic separation, test voltages....................................................................................8
LCD display...................................................................................................................8
Block diagram................................................................................................................9
Operating the device..........................................................................................................9
Display and operating elements...........................................................................................9
Operation........................................................................................................................10
The operating modes........................................................................................................10
Operating mode normal operation..................................................................................10
The status line.........................................................................................................12
Operating mode menu...................................................................................................12
Operating mode edit.....................................................................................................12
Operating mode error indication.....................................................................................12
Operating mode simulation............................................................................................13
Configuration ..................................................................................................................14
The menu tree.............................................................................................................14
Device parameter.........................................................................................................15
Input......................................................................................................................15
Learning..................................................................................................................16
Trend......................................................................................................................16
Characteristic curve..................................................................................................16
Output....................................................................................................................17
Limiting value n........................................................................................................17
Simulation............................................................................................