MGC Plus: Measuring Amplifier System
MGC Plus: Measuring Amplifier System
Special features
Data sheet
CAN)
- Sampling rates up to 19.2 kS/s per
channel
- Simultaneous and parallel measurement
with three independent sampling rates
- Stand-alone data logging with USB mass
storage device
- Accuracy class to 0.0025
- Carrier frequency measuring amplifier for
ambient conditions susceptible to error
Ethernet
IEEE1588
PTPv2
Supply voltage USB
memory Signal(s) Signal(s) Signal(s) Signal(s) Signal(s)
AP AP AP AP AP
Slot 1 Slot 2 Slot 3 Slot 4 Slot 5 0
NT CP52
ML ML ML ML ML
Slot 1 Slot 2 Slot 3 Slot 4 Slot 5 0
AB
Operation and display
Desktop enclosure 19" rack Slots Supply voltage Weight, approx. (kg)
(V) TG/ER
TG001E - 6 230 (115) 5.91)
TG003E ER003E 16 230 (115) 8.3/ 5.5)1)
TG009E - 2 230 (115) 5.01)
1) With the NT030 power pack, the enclosures weigh about 150 g less each
Notes
The MGCplus system is tested in accordance with the harmonized European standards 61326-1:2013 and
61010-1:2010. It therefore conforms to the applicable directives 2014/30/EU (Electromagnetic compatibility, EMC)
and 2014/35/EU (Low-voltage electrical equipment) in relation to protection against hazards. Mechanical stress is
tested in accordance with European standards EN 60068-2-6 for vibration and EN 60068-2-27 for shock. The
devices are exposed to an acceleration of 25 m/s2 within the frequency range 5...65 Hz in all 3 axes. Duration of
this vibration test: 30 minutes per axis. The shock test is implemented at a nominal acceleration of 200 m/s2 for a
duration of 11 ms, half sine and with shocks in each of the six possible directions. The maximum load per MGCplus
slot is 150 mA with 16 slots. Double slot loading is possible if an adjoining slot is left vacant.
Measurement frequency range Nom. value fc ‐1dB ‐3dB Runtime Rise time Overshoot
Low pass with Bessel characteristic (Hz) (Hz) (Hz) (ms) (ms) %
Only for the analog output 100000 111000 188000 0.0027 0.0025 10.8 (High)
100000 104000 145000 0.0027 0.0025 10.8 (Low)
(Digital interface 5000 Hz Butterworth) 50000 49000 84000 0.0044 0.004 6.6
1000 900 1800 0.27 0.2 0.6
400 400 800 0.47 0.44 0.5
200 230 405 0.82 0.96 0.4
100*) 117 210 1.58 1.8 0.4
40 38.5 68 4.21 5.4 0
20 22 37.5 7.2 9.3 0
10 10.5 19 13.9 19 0
5 5.1 9.6 25 37 0
2.5 2.6 4.8 50 75 0
1.25 1.35 2.4 100 155 0
0.5 0.7 1.2 200 300 0
0.2 0.17 0.3 650 1200 0
0.1 0.08 0.15 1400 2300 0
0.05 0.043 0.075 3000 4600 0
High pass
from 0.2 Hz Be, 5 Hz Bu Hz 0.1
from 2.5 Hz Be, 5 Hz Bu Hz 1.0
from 20 Hz Be, 40 Hz Bu Hz 10
Max. allowed common-mode voltage V ±6
Common-mode rejection
SG dB >120 (DC)
Potentiometer dB >95 (DC)
Non-linearity % < 0.03 of full scale value
Noise relative to input SG Potentiometer
with selected low-pass filter (Bessel) (0.2 … 6.12 mV/V) (20 … 612 mV/V)
100000 Hz μV/VSS 4 300
50000 Hz 3 3) 300
10000 Hz 3 300
1000 Hz 1.3 100
100 Hz 0.35 35
Influence of ambient temperature for change of 10 K With autocalibration Without autocalibration
on digital signals S1 and S2
SG (Low): Sensitivity % <0.03 <0.2
Zero point μV/V <0.6 <10
Potentiometer (High): Sensitivity % <0.03 <0.2
Zero point μV/V <30 <500
Longterm drift over 48 hours
SG (Low): μV/V <0.25 <5
Potentiometer (High): μV/V <20 <400
Measurement frequency range Nom. value fc –1dB –3dB Runtime Rise time Overshoot
(Hz) (Hz) (Hz) (ms) (ms) %
Without filter - 2500 3100 0.4 0.12 8
Low pass with Butterworth characteristic 2000 2000 2400 0.5 0.18 10
1000 1000 1200 0.8 0.35 8
500 470 570 0.9 0.70 11
250 246 291 1.45 1.3 10
80 79 99 3.65 3.8 9
40 37.5 49.5 6 7 7
20 19 25.5 11 13.3 6
10 8.9 12.4 20 26 5
5 4.5 6.2 42 50 4
Low pass with Bessel characteristic Nom. value fc –1dB –3dB Runtime Rise time Overshoot
(Hz) (Hz) (Hz) (ms) (ms) %
900 900 1800 0.6 0.35 0
400 400 800 0.8 0.52 1.0
200 235 410 1.1 0.86 1.3
100*) 117 210 1.8 1.7 1.3
40 38.5 68 4.3 5.1 1
20 22 37.5 7.4 9.4 1
10 10.5 19 12 19 0
5 5.1 9.6 22 35.5 0
2.5 2.6 4.8 50 70 0
1.25 1.35 2.4 100 135 0
0.5 0.7 1.2 200 280 0
0.2 0.17 0.3 650 1100 0
0.1 0.08 0.15 1400 2200 0
0.05 0.043 0.075 3000 4600 0
High pass
from 0.2 Hz Be; 5 Hz Bu Hz 0.1
from 2.5 Hz Be; 5 Hz Bu Hz 1.0
from 20 Hz Be; 40 Hz Bu Hz 10
Noise (10 kHz input signal)
with selected low-pass filter from Hz ±3
1 kHz (Butterworth) Hz ±1
100 Hz (Bessel) Hz ± 0.2
Input filter Glitch filter, selective
Longterm drift over 90 d % <0.005
Effect of 10 K change in ambient temperature
% 0.005
on digital signals S1 and S2:
Analog outputs Ua1 and Ua2
Residual carrier voltage (38.4 kHz) MVSS <5
Longterm drift over 48 h mV <3
*) Factory setting
1) Does not apply to version -KF1
2) Max. 20 m if internal transducer supply is used
ML 455 AP455iS6
Subchannel 1
Subchannel 2
Subchannel 3
Subchannel 4
Low pass with Bessel characteristic Nom. value fc –1dB –3dB Runtime Rise time Overshoot
(Hz) (Hz) (Hz) (ms) (ms) %
400 380 650 1.4 1 1
200 235 380 1.5 1.75 1
100*) 125 210 2.6 3 2
40 43 70 5.2 7.5 1
20 24 40 7.4 15 1
10 11 18 15.7 31 0
5 4 10 27 55 0
2.5 2.6 4.8 53 125 0
1.25 1.35 2.4 104 210 0
0.5 0.7 1.2 195 450 0
0.2 0.17 0.3 730 2000 0
0.1 0.08 0.15 1480 3700 0
0.05 0.04 0.075 3000 7500 0
Mechanical
Card format mm Europe 100 x 160
Width mm 20.3 (4 HP)
Connections LemoR 1B 10‐pin EXG.1B.310.HLN
Designation of the matching plug Fixed plug (1st letter in model name) : F
(manufacturer LemoR) Key (3rd letter in model name) : G
Series: 1B
Type: 310
Example: FGG.1B.310.CLAD62
(Variants in bold must be selected)
1) 0.05 at PWM
2) These torque transducers are not excited by connection board AP460i!
ML460 AP460i
ML 460 AP 460
ERROR CHAN
O
V 1
E
R 2 Subchannel 1
L
O 3
A
D 4
1
S
I 2
G
N 3 Subchannel 2
A
L 4
Subchannel 3
Subchannel 4
fg max Internal
Low pass Bessel HD Nominal -1dB -3dB Sampling rate
(Hz) (Hz) (Hz) (Hz)
200 259 448 2400
100 102 184 2400
40 41 75 2400
20 20 36 2400
10 10 18 2400
5 5 9 1200
2.5 2.5 4.5 600
1 1 1.8 300
0.5 0.5 0.9 150
0.2 0.21 0.38 75
0.1 0.1 0.19 37.5
0.05 0.051 0.094 18.7
on the zero point (relative to the full scale value) % 0.1 0.03
Width mm 20.3 (4 HP)
Operating temperature range °C -20 … +60
*) If the transducer cable is laid outside enclosed rooms, or with cable lengths of more than 30 meters between the connection board AP418i and
transducer, the sensor cables must be executed with an additional, separately grounded, shield in order to ensure protection against
overvoltage. This can be done for example by laying the cable in a metallic pipe or using double-shielded cable, in which case the outer shield
must be connected to ground potential or protective conductor potential where it is close to the connection board (for example where it enters
the switch cabinet). HBM recommends Triaxial cable for this.
AP801S6
1 1
14 14
25 25
13 13
1 1
14 14
25 25
13 13
AP814Bi AP815i
for 8 SG quarter bridges in 3-wire for 8 SG quarter, half or full bridges
configuration
1 1
14 14
25 25
13 13
1
14
25
13
AP402i AP418i
for 4 DC voltage or DC current sources (electrically isolated, for 4 current-fed piezo transducers
TEDS‐capable, with voltage supply 5 V; 8 V; 16 V) (T‐ID and TEDS capable)
ML70B AP72
CAN interface
Number of CAN interfaces 2
Protocol CAN 2.0B
Baud rate baud 10 k 20 k 50 k 125 k 250 k 500 k 667 k 1 M
Line length m 1000 1000 1000 500 250 100 50 25
Hardware bus link per CAN interface individually reversible Standard High SPEED ISO 11898-24V
Fault Tolerant Low Speed
Connection technique 2x 9-pin DSUB, individually electrically isolated from supply
and measurement ground
Measured value recording
Number of recordable signals/signals to be transmitted max. 128 per module 2)
Signals per second
25 50 100 400 1200
Maximum number of signals (16‐bit signals each with
4 signals per message) 128 72 36 83) 1 … 84)
Data base with parameter setting information via the CAN
2 (1 data base per CAN interface)
signals
Data base size Byte 2 x 100k
Data base storage Non-volatile, in flash memory in ML71B
Mechanical
Nominal (rated) temperature range _C -20 … +60
Storage temperature range _C -25 … +70
Operating voltages V +14.6 … +17.0 (<90 mA)
-14.6 … -17.0 (<100 mA)
-7 … -9 (<10 mA)
Card format mm Europe 100 x 160
Width mm 20.3 (4 HP)
Connector plug Indirect DIN 41612
Analog output
The analog output can optionally represent one of the
max. 128 input signals
Rated voltage V ± 10 V asymmetrical
Allowed load resistance kΩ >5
Non-linearity % <0.05
Internal resistance Ω <5
Effect of 10 K change in ambient temperature on the zero
mV 3
point
Effect of 10 K change in ambient temperature on the
% < 0.08
sensitivity
1) Only in systems with CP22, CP42 and CP52 or in systems with no communications processor.
2) Maximum 256 channels per CP42, maximum 512 channels per CP52
3) In operation with more than 8 subchannels
4) In 8‐channel operation
CAN interface
Connection board AP74
Protocol CAN 2.0B
Baud rate kBaud 250 or 500
Maximum bus length See CANHEAD data sheet
Measured value recording
Maximum number of CANHEAD modules per module 12
Number of subchannels per module 10 … 120 2)
Maximum sampling rate per CANHEAD line3) S/s 3000 or 6000
CANHEAD supply
Cut-off current A 2
Cut-off upon current to earth A 0.1
Mechanical
Nominal (rated) temperature range _C -20 … +60
Storage temperature range _C -25 … +70
Card format mm Europe 100 x 160
Width mm 20.3 (4 HP)
1) Only in systems with CP22, CP42 and CP52 or in systems with no communications processor.
2) The maximum number of channels per CP42 and CP52 is 256, with up to 512 channels possible if a CP52 is combined with an NT040 power
supply
3) Depending on baud rate, see operating manual and technical data sheet CANHEAD
ML74B AP74
ML74B
AP75 AP78
AB22A