Kistler 5074B212 Owner's manual

Type
Owner's manual
Instruction
manual
5074B_002-942e-09.20
Digital industrial
charge amplier
Type 5074B...
ä
Valid from
Firmware Version 1.0.22
Instruction
manual
5074B_002-942e-09.20
Digital industrial
charge amplier
Type 5074B...
ä
Valid from
Firmware Version 1.0.22
Page 15074B_002-942e-09.20
Thank you for choosing a Kistler quality product
characterized by technical innovation, precision and long
life.
Information in this document is subject to change without
notice. Kistler reserves the right to change or improve its
products and make changes in the content without
obligation to notify any person or organization of such
changes or improvements.
© 2020 Kistler Group. All rights reserved. Except as ex-
pressly provided herein, no part of this manual may be re-
produced for any purpose without the express prior written
consent of Kistler Group.
Kistler Group products are protected by various intellectual
property rights. For more details visit www.kistler.com. The
Kistler Group includes Kistler Holding AG and all its subsid-
iaries in Europe, Asia, the Americas and Australia.
Kistler Group
Eulachstrasse 22
8408 Winterthur
Switzerland
Tel. +41 52 224 11 11
info@kistler.com
www.kistler.com
Foreword
Foreword
Digital industrial charge amplier Type 5074B
5074B_002-942e-09.20Page 2
Content
1. Introduction .................................................................................................................................4
1.1 For your safety ....................................................................................................................5
1.2 Electromagnetic compatibility (EMC) ..................................................................................5
1.3 Warnings and their relevance .............................................................................................5
1.4 Disposal instructions for electrical and electronic equipment .............................................6
1.5 Software upgrades and updates .........................................................................................6
2. Fundamentals ..............................................................................................................................7
2.1 Piezoelectric measurement ................................................................................................7
2.2 The industrial charge amplier ...........................................................................................9
3. Description of the Type 5074 charge amplier .......................................................................10
3.1 Block diagram ................................................................................................................... 11
3.2 Dimensions ....................................................................................................................... 11
3.3 Ordering information .........................................................................................................12
3.3.1 Included accessories ...........................................................................................12
3.3.2 Accessories (optional) .........................................................................................12
3.4 Change Notice Type 5074B ..............................................................................................13
4. Commissioning .........................................................................................................................14
4.1 Installation ........................................................................................................................14
4.1.1 Connecting sensors.............................................................................................14
4.1.2 Led Codes ...........................................................................................................15
4.1.3 Network and power connection ...........................................................................15
4.1.4 EMC and ground loops........................................................................................16
4.2 PLC integration .................................................................................................................17
4.2.1 Channel operation (cyclic communication)..........................................................19
4.2.1.1 Cyclic operation parameters ................................................................20
4.2.1.2 Cyclic measurement data ....................................................................21
4.2.1.3 Cyclic status bits ..................................................................................22
4.2.2 Error codes ..........................................................................................................23
4.2.3 Channel conguration (acyclic communication) ..................................................24
4.2.4 Advanced features description ............................................................................27
4.2.5 EtherCat (integration into TwinCat 3, beckho) ...................................................28
4.2.5.1 Startup parameters ..............................................................................28
4.2.5.2 Available PDOs ....................................................................................29
4.2.5.3 Conguration during operation ............................................................30
4.2.5.4 EtherCat parameter objects .................................................................30
4.2.5.5 LED Codes ..........................................................................................32
4.2.6 ProNet (integration into TIA portal, Siemens) ....................................................32
4.2.6.1 Available modules ................................................................................32
4.2.6.2 Records ...............................................................................................33
4.2.6.3 IRT .......................................................................................................34
4.2.6.4 Pronet parameter indexes ..................................................................34
4.2.6.5 LED Codes ..........................................................................................35
Page 35074B_002-942e-09.20
Total pages 57
4.2.7 Ethernet/IP (Integration into Studio 5000, Rockwell Automation) ........................ 36
4.2.7.1 Addressing Methods ............................................................................36
4.2.7.2 Available Assemblies ...........................................................................36
4.2.7.3 Vendor-specic Objects .......................................................................37
4.2.7.4 LED codes ...........................................................................................39
5. Maintenance and diagnostics ..................................................................................................40
5.1 Services ............................................................................................................................40
5.2 Drift ...................................................................................................................................40
6. Technical Data ...........................................................................................................................43
7. Glossary .....................................................................................................................................47
7.1 Measurement Uncertainty ................................................................................................50
7.2 Linearity ............................................................................................................................51
7.3 Frequency Range .............................................................................................................53
7.4 Inuence of Temperature ..................................................................................................55
8. EC Declaration of Conformity ..................................................................................................57
Digital industrial charge amplier Type 5074B
5074B_002-942e-09.20Page 4
1. Introduction
The Type 5074B... charge amplifier measures the charge
signal from the piezoelectric sensor and provides measure-
ment data via industrial Ethernet.
Most important performance features at a glance:
variants with 1, 2, 3 or 4 channels
wide measuring range from 20 pC up to 1 000 000pC
available for EtherCat, ProfiNet and Ethernet/IP
variable process data for optimized network load
24-Bit data acquisition
real-time output within down to 100 μs
output with up to 50kSps per channel using oversam-
pling and synchronization technologies
flexible low-pass filter and applicable high-pass filter
acquisition of peak values and integral values
sensor signal scaling function
status indicators for network and channel status
handshake for changes of device status
cascadable design; connect multiple devices in line
FKM/FPM sealings for IP67 protection
Power routing according to EtherCat Standard
Please take the time to thoroughly read this instruction manu-
al. It will help you with the installation, maintenance, and use
of this product. General know-how about PLC control system
setup, programming and device integration is required.
To the extent permitted by law Kistler does not accept any
liability if this instruction manual is not followed.
Kistler offers a wide range of products for use in measuring
technology:
Piezoelectric sensors for measuring force, torque, strain,
pressure, acceleration, shock, vibration and acoustic-emis-
sion
Strain gage sensor systems for measuring force and torque
Piezoresistive pressure sensors and transmitters
Signal conditioners, indicators and calibrators
Electronic control and monitoring systems as well as soft-
ware for specific measurement applications
Data transmission modules (telemetry)
Kistler also develops and produces measuring solutions for
the application fields engines, vehicles, manufac-turing,
plastics and biomechanics sectors.
Our product and application brochures will provide you
with an overview of our product range. Detailed data sheets
are available for almost all products.
If you need additional help beyond what can be found ei-
ther online or in this manual, please contact Kistler's exten-
sive support organization.
Introduction
Page 55074B_002-942e-09.20
1.1 For your safety
The device left the factory in a perfectly safe condition. To
maintain this condition and ensure safe operation, follow
the directions and warnings in this Instruction Manual and
on the device.
Also follow local safety regulations governing the handling
of electrical and electronic equipment.
If it has to be assumed that the amplifier can no longer be
operated safely, switch it off and secure it to ensure it can-
not be switched on again inadvertently.
Safe operation is no longer possible
if the equipment is visibly damaged,
if it is not working properly,
after prolonged storage under adverse conditions,
after being severely impacted in transit.
If any of the above indicate that safe operation is no lon-
ger ensured, the device must be immediately sent to the
responsible Kistler sales center or distributor for repair.
1.2 Electromagnetic compatibility (EMC)
The Type 5074B… charge amplifier is manufactured in con-
formity with CE requirements. It meets the electromagnetic
compatibility safety requirements to EN 61000-6-2 (Immu-
nity) and EN 61000-6-4 (Interference).
1.3 Warnings and their relevance
Disregard of the following precautions can lead to malfunc-
tions or damage to system components, environment or
people (see table below).
Symbol Disregard may have consequence
Mechanical defects or with unpredictable consequence
(might endanger material or people)
Digital industrial charge amplier Type 5074B
5074B_002-942e-09.20Page 6
Indicates a caution or warning notice
Indicates a tip or important information
1.4 Disposal instructions for electrical and electronic equipment
Do not discard old electronic instruments in municipal trash.
For disposal at end of life, please return this product to an
authorized local electronic waste disposal service or contact
the nearest Kistler Instrument sales office for return instruc-
tions.
1.5 Software upgrades and updates
Kistler may from time to time develop upgrades or updates
for the integrated software.
This device does not allow firmware upgrades by the cus-
tomer. Please contact Kistler Customer Service to check the
possibility of updating your unit to the latest firmware.
Kistler disclaims all liability for direct or consequential dam-
age caused by products that work with integrated software
and that have not been updated with the latest software
supplied.
Fundamentals
Page 75074B_002-942e-09.20
2. Fundamentals
The typical measuring chain consists of a piezoelectric sen-
sor with charge output, a charge amplifier and a system for
cycle command, data acquisition and data evaluation.
In industrial applications, cycle command functionality is
usually implemented with a programmable logic controller
(PLC).
2.1 Piezoelectric measurement
Sensors
Piezoelectric sensors directly convert mechanical quantities,
such as force, pressure and acceleration, into an electric
charge. This charge is proportional to the force acting on
the quartz crystal in the sensor. The sensitivity of the sen-
sors is given in pC/M.U.
Fig. 3: Force F on the piezoelectric sensor
Digital industrial charge amplier Type 5074B
5074B_002-942e-09.20Page 8
Notes on piezoelectric measurement
When working with piezoelectric instruments, please note
that these differ from other familiar electrical measuring in-
struments. The applicable criteria are different from those
for conventional current or voltage measurement, for ex-
ample. When unpacking the sensors and the special cables
ensure that their connectors remain clean and dry, in order
to maintain their high insulation resistance. In particular,
the Teflon insulator of all connector pairs in the input cir-
cuit must be kept absolutely clean and must not be touched
with your fingers. Only use unadulterated cleaning agents,
for example 1003 cleaning spray from Kistler or white spir-
its, on a clean, lint-free paper towel.
High insulation sensor cables
Only high insulation, low noise sensor cables, as per Kistler
data sheets 1631C_000-346 and 1601B_000-352, may be
used for connecting the sensors. Normal commercial coax-
ial cables generate triboelectricity as a result of movement,
which would falsify the measurement result.
Connecting piezoelectric sensors in parallel
When several sensors are connected in parallel, the charge
amplifier measures the sum of all charges. For example, the
four quartz force links of a measuring platform can be con-
nected in parallel in order to measure the total force.
Polarity
Kistler defines polarity in such a way that an increase in
compressive force in a force sensor produces a negative
charge. The charge amplifier inverts the sensor signal and in
this case generates a positive output voltage.
Measuring range
We recommend setting the widest measuring range at the
start of measurement or for very intermittent operation.
Normal overdriving by overly-large charge signals does not
damage the charge amplifier. If the amplifier is overdriven
by a factor of more than 10, the charge can produce an
unacceptably high voltage. The amplitude of the voltage
depends on the input charge, the total input capacitance
(sensor and cable) and the range capacitor.
Measure mode
The major advantage of the charge amplifier principle is that
even quasi-static measurement can be carried out perfectly.
Static measurement is limited by the finite time constant in
the negative feedback circuit, as well as by drift effects (for
example, input current) in the charge amplifier.
Fundamentals
Page 95074B_002-942e-09.20
2.2 The industrial charge amplifier
In this context it should be noted that the term "charge am-
plifier" does not mean a device that amplifies a charge Q1
to a value Q2. We use it in the sense of a device for con-
verting the charge Q into a voltage Ua. A charge amplifier
is therefore a charge-to-voltage converter. It employs the
circuit principle of the integrator. Its key components are
an operational amplifier with very high internal gain and
extremely high input insulation (Rg) as well as a high-preci-
sion, low-loss negative feedback capacitor (Cg).
Fig. 5: Equivalent circuit diagram of charge amplifier with
charge source
The following approximate formula is adequate for calcu-
lating the voltage signal in most cases:
Ua = -Q / Cg
At the end of each measuring cycle the negative feedback
capacitor is discharged by means of the Reset command and
the output signal is set to zero in order to prevent zero drift
during measurement. The insulation resistance of the nega-
tive feedback capacitor Cg determines the lower cut-off fre-
quency of the charge amplifier according to the formula
fu = 1/(2τ · Rg · Cg )
The negative feedback capacitor can also be discharged ac-
cording to a time constant. This option is available in the
device with a preconfigured resistor but can also be config-
ured with a different time constant on request.
Very stringent requirements are imposed on the stability,
low input current and high input insulation of such an inte-
grator, as the charges to be measured are often just a few
pC. As a result of the high charge sensitivity and high input
resistance, the sensitivity to noise is also relatively high.
In industrial applications, the sensitivity to interference can be
reduced if the charge amplifier is mounted as close as possible
to the sensor. The signal can then be processed further away,
as the output circuit of the charge amplifier is low resistance
and hence insensitive to interference.
Digital industrial charge amplier Type 5074B
5074B_002-942e-09.20Page 10
3. Description of the Type 5074 charge amplifier
All communication, configuration and user data is transmit-
ted exclusively via the industrial Ethernet, making the de-
vice easily applicable for machine and equipment builders.
No additional software is required but the already known
programming interface of the machine control system.
Know-how about PLC system setup, programming and de-
vice integration is required.
Integration into the control environment is carried out as
with a standard fieldbus device using the programming in-
terface of the PLC manufacturer and the device description
file which is provided by Kistler.
Functions and parameters
The feature set of the 5074B... may be configured to meet
the effectively required functionality. Parameters are set us-
ing the startup configuration parameters. Changes on these
channel configuration parameters may be sent to the de-
vice during an active measurement, but require a measure-
reset-measure toggle and will be activated with the next
measuring cycle.
Influencing and adapting the process data
The processing of many analog values under short cycle
times can dramatically increase the utilization of the net-
work. The 5074B enables the flexible adaptation of the pro-
cess image and thus an optimization of the network utiliza-
tion according to customer requirements. Possible measures
to reduce the process data are:
- Use of 16Bit values instead of 32Bit
- Disable unnecessary data (e.g. floating point values,
integral and peak values)
Refer to Section 4.2 for more details regarding PLC integra-
tion, channel control and configuration:
- Scaling of the input signals
- Measurement range setting
- Adjustable low-pass filter
- Oversampling factor
- Time constant, high-pass filter
- Peak tracking
- Integral calculation
Description of the Type 5074 charge amplier
Page 115074B_002-942e-09.20
3.1 Block diagram
EMV-PCB ADC 24 bit
2 x Industrial
Ethernet
(Feldbus)
ADC 4
PHY
2x magnetics
LED
M12x1
ADC 3
ADC 2
EMI/POL
Protection
Power
18 ..30VDC
dICA5074Axxx (digital Industrial Charge Amplifier)
PHY
Charge 1
Charge 2
Charge 3
Charge 4
Fieldbus
Processor
Digital Signal
Processor
LS 2
4 x CA
UNF10-32
Charge x
Cg sel 2
Charge
Measure
LS 3
LS 4
AA-Filter
AA-Filter
AA-Filter
AA-Filter
Power
Supply
Fly-Back
Ext.GND
SGND
ADC 1LS 1
+/-5V
+3.3V
+2.5V_VREF
+1.8V
FPGA
SPI
Diff.-Amp
Diff.-Amp
Diff.-Amp
Diff.-Amp
Cg sel 3
nTC1
+1.5V
FB_SYNCFB_SYNC
RX-
Screen
TX-
RX+
TX+
In
RX-
Screen
TX-
RX+
TX+
Out
1
1
2
2
3
4
5
3
4
5
Out
In
1
2
3
4
1
2
3
4
+24VDC Us/p
+24VDC Us/p
GND
GND
+24VDC Us/p
+24VDC Us/p
GND
GND
EarthGND
SGND
Power
Industrial
Ethernet
EartGND
1M
Case
3.2 Dimensions
5074B
Digital industrial charge amplier Type 5074B
5074B_002-942e-09.20Page 12
3.3 Ordering information
* Y- Modification options, realization on request
Ordering example
1-channel, KIAG 10-32UNF neg., EtherCat: 5074B111
3.3.1 Included accessories
Protection cap 1891
IP54 for sensor connector
Protection cap for M12 socket 55160137
Protection cap for M8 socket 55137563
3.3.2 Accessories (optional)
Sensor cable PFA, IP65 1635Cxxx
plug KIAG 10-32 UNF pos.
plug KIAG 10-32 UNF pos.
Sensor extension cable PFA, IP65 1637Cxxx
socket KIAG 10-32 UNF neg.
plug KIAG 10-32 UNF pos.
Sensor cable w. metal sleeve, IP67 1900A21Ax
plug KIAG 10-32 UNF pos.
plug KIAG 10-32 UNF pos.
Set 4x protection cap metal with O-ring, 1891A1
IP67 for sensor connector
Network connection cable, 1200A195A2
plug RJ45 – plug,
plug M12 male 4-Pole D-coded, length 2m
Charge amplifier Typ 5074B
Inputs
1-channel charge 1
2-channel charge 2
3-channel charge 3
4-channel charge 4
Sensor connection socket
KIAG 10-32 UNF neg. – IP67 1
Industrial Ethernet type
EtherCat 1
EtherNet/IP 2
ProfiNet 3
Description of the Type 5074 charge amplier
Page 135074B_002-942e-09.20
Network connection cable, 1200A195B0,2
plug M12 male 4-Pole D-coded,
plug M12 male 4-Pole D-coded, length 0.2m
Power cable, 1200A239A2
plug M8 male 4-Pol
open end, length 2m
Power cable, 1200A239B0,2
plug M8 male 4-Pol
plug M8 female 4-Pol, length 0.2ms
3.4 Change Notice Type 5074B
Type 5074B power connection is split in two separate pow-
er lines Us-Gs for slave and Up-Gp for peripheral devices.
To power 5074B the power must be delivered via Us-Gs.
The peripheral power line Up-Gp does not affect 5074B
power state.
Both power lines are limited to max. 1.5A pass-through.
Digital industrial charge amplier Type 5074B
5074B_002-942e-09.20Page 14
4. Commissioning
Do never open the device.
Moisture and particles would be able to enter the device
and may cause errors and drift.
4.1 Installation
To mount the amplifier, use the flange marked on the
graphic and M4 Cylinder Head Screws.
See Chapter 4.1.3 for details on EMC and ground-loop.
4.1.1 Connecting sensors
Depending on the version, one, two, three or four sensors
can be connected to the 5074B charge amplifier.
The extremely high input insulation of the charge am-
plifier (>1E13 Ohm) means the signal or charge input
has to be protected against dirt and moisture. Clean the
connector contacts with a clean, lint-free paper towel
and Type 1003 cleaning spray or white spirit.
Connect the cable to the sensor. We recommend using
high-insulation, low-noise cables from the Kistler range.
These are tested specifically for high insulation resistance,
low noise and low unwanted (triboelectric) charge pro-
duced by friction. If the cable is moved during operation,
it should not be suspended over spans exceeding 30 ...
50 cm.
Connect the sensor cable to the KIAG 10-32UNF neg.
jack of the industrial charge amplifier.
Commissioning
Page 155074B_002-942e-09.20
4.1.2 Led Codes
Blink codes for Network are implemented according to net-
work standards, while blink codes for each channel are im-
plemented according to Kistler standards.
Sensor-LEDs per channel
Initialization Flashing yellow with 5 Hz
Reset Flashing blue with 5 Hz
Operate Blue
Overload Red
4.1.3 Network and power connection
The internal switching type power converter is built up
with galvanic insulation. This provides additional immunity
against noise generated by other slave devices connected to
the same power supply.
The power output connector allows power routing through
the cascaded devices to have multiple slave devices con-
nected in a line. However the current routing through the
5074B is limited to 1.5A.
Power supply
Connector type M8 4 pole male
Load capacity on power out connector 1.5A
1 +24 VDC Us
2 +24 VDC Up (just passed-through)
3 GND Gs
4 GND Gp (just passed-through)
The network connections are internally galvanically insulat-
ed and allow network routing through the cascaded devices
to have multiple slave devices connected in a line.
Industrial Ethernet connection
Connector type M12 4 pole male D-coded
1 TX+
2 RX+
3 TX-
4 RX-
Digital industrial charge amplier Type 5074B
5074B_002-942e-09.20Page 16
4.1.4 EMC and ground loops
Piezoelectric sensors are usually designed so that one of the
electrodes is connected on the sensor case, allowing the use
of coaxial cables. So when the sensor is installed, it is usu-
ally grounded by the metal structure (safety). If the sensor
is not insulated when it is installed, a resultant ground loop
could cause interference.
There are different countermeasures if EMC or ground
loops occur:
A low-impedance and at the same time low-inductance
connection between instrument case and sensor (large-ar-
ea copper braiding, ribbon cable) usually provides good re-
sults.
On the other side, the sensor may also be installed using
insulation elements to eliminate current flow based on po-
tential differences or induction.
Since network and power connection are galvanically insu-
lated, there shall be a defined connection of the measuring
chain to a ground level.
Potential differences from sensor to amplifier mounting
area
On single channel 5074B1xx device, either sensor or am-
plifier shall be connected to ground, in order to not have a
floating measurement system.
Commissioning
Page 175074B_002-942e-09.20
Potential differences between sensor inputs
On multi-channel 5074B2xx, 5074B3xx and 5074b4xx it is
important to consider, that sensor connector grounds are
internally connected and capacitive coupled to the housing.
It is therefore recommended to electrically insulate the sen-
sors in order to prevent electrical current flow due to po-
tential differences between sensor locations, or to take ade-
quate counter measures.
4.2 PLC integration
The device is configured for each channel initially with the
user parameters or during operation using acyclic commu-
nication. The fieldbus provides the following data as cyclic
data:
Channel data blocks 1 to 4 are optional depending on the
use by the customer.
The cyclic output data block contains individual control bits
for each channel. Control bits are processed internally and
then confirmed with the status bits contained in the input
data block that is sent to the master with every cycle.
Fig. 1: Example regarding control and status bits:
Input data channel 1 Input data channel 2 Input data channel 3 Input data channel 4
Output data channel 1 Output data channel 2 Output data channel 3 Output data channel 4
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Kistler 5074B212 Owner's manual

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