Model 699A07
PORTABLE VIBRATION CALIBRATOR
Installation and Operating Manual
For assistance with the operation of this product,
contact the PCB Piezotronics, Inc.
Toll-free: 800-959-4464
24-hour SensorLine: 716-684-0001
Fax: 716-684-3823
E-mail: imi@pcb.com
Web: www.imi-sensors.com
Service, Repair, and Return
Policies and Instructions
The information contained in this document supersedes all similar information that
may be found elsewhere in this manual.
Service – Due to the sophisticated
nature of the sensors and associated
instrumentation provided by PCB
Piezotronics, user servicing or repair is
not recommended and, if attempted,
may void the factory warranty. Routine
maintenance, such as the cleaning of
electrical connectors, housings, and
mounting surfaces with solutions and
techniques that will not harm the
physical material of construction, is
acceptable. Caution should be observed
to ensure that liquids are not permitted
to migrate into devices that are not
hermetically sealed. Such devices
should only be wiped with a dampened
cloth and never submerged or have
liquids poured upon them.
Repair – In the event that equipment
becomes damaged or ceases to
operate, arrangements should be made
to return the equipment to PCB
Piezotronics for repair. User servicing or
repair is not recommended and, if
attempted, may void the factory
warranty.
Calibration – Routine calibration of
sensors and associated instrumentation
is recommended as this helps build
confidence in measurement accuracy
and acquired data. Equipment
calibration cycles are typically
established by the users own quality
regimen. When in doubt about a
calibration cycle, a good “rule of thumb”
is to recalibrate on an annual basis. It is
also good practice to recalibrate after
exposure to any severe temperature
extreme, shock, load, or other
environmental influence, or prior to any
critical test.
PCB Piezotronics maintains an ISO9001 certified metrology laboratory and
offers calibration services, which are
accredited by A2LA to ISO/IEC 17025,
with full traceability to SI through
N.I.S.T. In addition to the normally
supplied calibration, special testing is
also available, such as: sensitivity at
elevated or cryogenic temperatures,
phase response, extended high or low
frequency response, extended range,
leak testing, hydrostatic pressure
testing, and others. For information on
standard recalibration services or
special testing, contact your local PCB
Piezotronics distributor, sales
representative, or factory customer
service representative.
Returning Equipment – Following
these procedures will ensure that your
returned materials are handled in the
most expedient manner. Before
returning any equipment to PCB
Piezotronics, contact your local
distributor, sales representative, or
factory customer service representative
to obtain a Return Warranty, Service,
Repair, and Return Policies and
Instructions Materials Authorization
(RMA) Number. This RMA number
should be clearly marked on the outside
of all package(s) and on the packing
list(s) accompanying the shipment. A
detailed account of the nature of the
problem(s) being experienced with the
equipment should also be included
inside the package(s) containing any
returned materials.
A Purchase Order, included with the
returned materials, will expedite the
turn-around of serviced equipment. It is
recommended to include authorization
on the Purchase Order for PCB to
proceed with any repairs, as long as
they do not exceed 50% of the
replacement cost of the returned
item(s). PCB will provide a price
quotation or replacement
recommendation for any item whose
repair costs would exceed 50% of
replacement cost, or any item that is not
economically feasible to repair. For
routine calibration services, the
Purchase Order should include
authorization to proceed and return at
current pricing, which can be obtained
from a factory customer service
representative.
Contact Information – International
customers should direct all inquiries to
their local distributor or sales office. A
complete list of distributors and offices
can be found at www.pcb.com.
Customers within the United States may
contact their local sales representative
or a factory customer service
representative. A complete list of sales
representatives can be found at
www.pcb.com. Toll-free telephone
numbers for a factory customer service
representative, in the division
responsible for this product, can be
found on the title page at the front of this
manual. Our ship to address and
general contact numbers are:
PCB Piezotronics, Inc.
3425 Walden Ave.
Depew, NY14043 USA
Toll-free: (800) 828-8840
24-hour SensorLineSM: (716) 684-0001
Website: www.pcb.com
E-mail: info@pcb.com
PCB工业监视和测量设备 - 中国RoHS2公布表
PCB Industrial Monitoring and Measuring Equipment - China RoHS 2 Disclosure Table
部件名称
有害物质
铅 (Pb)
汞
(Hg)
镉
(Cd)
六价铬 (Cr(VI))
多溴联苯 (PBB)
多溴二苯醚 (PBDE)
住房
O O O
O O O
PCB板
X O O
O O O
电气连接器
O O O
O O O
压电晶体
X O O
O O O
环氧
O O O
O O O
铁氟龙
O O O
O O O
电子
O O O
O O O
厚膜基板
O O X
O O O
电线
O O O
O O O
电缆
X O O
O O O
塑料
O O O
O O O
焊接
X O O
O O O
铜合金/黄铜
X O O
O O O
本表格依据 SJ/T 11364 的规定编制。
O： 表示该有害物质在该部件所有均质材料中的含量均在 GB/T 26572 规定的限量要求以下。
X： 表示该有害物质至少在该部件的某一均质材料中的含量超出 GB/T 26572 规定的限量要求。
铅是欧洲RoHS指令2011/65/ EU附件三和附件四目前由于允许的豁免。
CHINA RoHS COMPLIANCE
Component Name
Hazardous Substances
Lead
(Pb)
Mercury
(Hg)
Cadmium
(Cd)
Chromium VI
Compounds
(Cr(VI))
Polybrominated
Biphenyls
(PBB)
Polybrominated
Diphenyl
Ethers (PBDE)
Housing O O O O O O
PCB Board
X O O O O
O
Electrical
Connectors
O O O O O
O
Piezoelectric
Crystals
X O O O O
O
Epoxy O O O O O O
Teflon O O O O O O
Electronics
O O O O O
O
Thick Film
Substrate
O O X O O
O
Wires O O O O O O
Cables X O O O O O
Plastic O O O O O O
Solder X O O O O O
Copper Alloy/Brass
X O O O O
O
This table is prepared in accordance with the provisions of SJ/T 11364.
O: Indicates that said hazardous substance contained in all of the homogeneous materials for this part is below the limit
requirement of GB/T 26572.
X: Indicates that said hazardous substance contained in at least one of the homogeneous materials for this part is above
the limit requirement of GB/T 26572.
Lead is present due to allowed exemption in Annex III or Annex IV of the European RoHS Directive 2011/65/EU.
DOCUMENT NUMBER: 21354
DOCUMENT REVISION: D
ECN: 46162
User Manual
Portable Vibration
Calibrator
699A07
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MODEL 699A07 Portable Vibration Calibrator User Manual
Product Support
For answers to questions about the 699A07 Portable Vibration Calibrator, consult this manual. For
additional product support, contact IMI Sensors at 800-959-4464 in the U.S.A. or 716-684-0003, 9
a.m. to 5 p.m. EST. If it is more convenient, fax questions or comments to IMI Sensors at 716684-3823 or email our sales staff at imi@pcb.com.
Warranty
IMI Sensors Model 699A07 Portable Vibration Calibrator is warranted against defective materials
and workmanship for TWO YEARS from the date of shipment, unless otherwise specified.
Damage to equipment caused by incorrect power, misapplication or procedures inconsistent with
this manual are not covered by warranty. If there are any questions concerning the intended
application of the product, contact IMI Sensors. Batteries and other expendable accessory
hardware items are excluded.
Copyright
Copyright ã 2017 IMI Sensors. This manual is copyrighted with all rights reserved. The manual
may not be copied in whole or in part for any use without prior written consent of IMI Sensors.
Disclaimer
The following paragraph does not apply in any state or country where such statements are not
agreeable with local law:
IMI Sensors provides this publication “as is” without warranty of any kind, express or implied,
including but not limited to, the implied warranties of merchantability or fitness for a particular
purpose. This document is subject to change without notice and should not be construed as a
commitment or representation by IMI Sensors.
This publication may contain inaccuracies or typographical errors. IMI Sensors will periodically
update the material for inclusion in new editions. Changes and improvements to the product
described in this manual may be made at any time.
Trademarks
ICP® is a registered trademark of PCB Piezotronics, Inc. Pelican® is a trademark of
Pelican Products, Inc.
MAN-0192 Rev A
October 2017
3425 Walden Avenue
Depew, NY 14043
Phone: 716.684.0001
Fax: 716-684-0987
www.pcb.com
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Table of Contents
INTRODUCTION ............................................................................................................................. 4
!
Welcome ............................................................................................................................ 4!
Customer Support .............................................................................................................. 4!
Cautionary Notes ................................................................................................................ 4!
Supplied Accesories ........................................................................................................... 5!
Optional Fixturing and Accessories .................................................................................... 6!
Replacement Accessories .................................................................................................. 6!
699A07 OPERATION GUIDE ......................................................................................................... 7!
Basic Operation .................................................................................................................. 7!
Report Generation Workbook ............................................................................................. 9!
Additional Features ........................................................................................................... 11!
Calibration Route .............................................................................................................. 13!
Definition of Frequency Units ........................................................................................... 18!
Definition of Amplitude Units ............................................................................................ 18!
Mounting Basics ............................................................................................................... 19!
Input / Output .................................................................................................................... 19!
THEORY OF OPERATION ........................................................................................................... 21!
Instrumentation ................................................................................................................. 21!
Battery and Charger ......................................................................................................... 23!
Battery Information and Care ........................................................................................... 23!
SPECIFICATIONS AND PERFORMANCE .................................................................................. 24!
General ............................................................................................................................. 24!
Accuracy of Readout ........................................................................................................ 24!
Units of Readout ............................................................................................................... 24!
Power Requirements ........................................................................................................ 25!
Temperature ..................................................................................................................... 25!
Physical ............................................................................................................................ 25!
Shaker Loading ................................................................................................................ 25!
RECOMMENDED PRACTICES .................................................................................................... 28!
Operational Verification and Recalibration ....................................................................... 28!
Standard Checks for Transducers .................................................................................... 28!
Typical Accelerometer & Velocity Sensor Checkout ........................................................ 29!
Calibrating Charge-Mode Accelerometers ....................................................................... 30!
Non-Contact Displacement Sensor Calibration ................................................................ 30!
Non-Contact Displacement Sensor Test Setup ................................................................ 31!
Proximity Probe Dynamic Linearity Calibration & Confirmation of Vibration Alarms ........ 35!
Troubleshooting the proximity probe system .................................................................... 36!
Creating a Proximity Probe Curve in Mils ......................................................................... 36!
Testing 4-20 mA Vibration Transmitters ........................................................................... 37!
Maintenance ..................................................................................................................... 39!
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Introduction
Welcome
Thank you for choosing IMI Model 699A07.
The IMI Model 699A07 Portable Vibration Calibrator provides a field tested method
for on-the-spot dynamic verification of accelerometers, velocity pickups and noncontact displacement transducers. Optional mounting fixtures and hardware
needed to connect transducers to the 699A07 mounting platform are available upon
request.
A closed-loop control algorithm provides enhanced stability and accuracy of
frequency and amplitude levels.
The 699A07 incorporates a built-in sine wave oscillator, power amplifier,
electrodynamic shaker, NIST traceable reference accelerometer, digital display, and
internal memory. The 699A07 is completely self-contained and operates on battery
or AC power.
The built-in reference accelerometer is attached permanently to the shaker
armature, maximizing the accuracy between the reference accelerometer and the
test transducer. The 699A07 is designed to provide long-term reliable performance
over the frequency range of 5 Hz to 10 kHz. The 699A07 can be used for a variety
of applications that include:
• Verification and calibration of vibration transducers and related vibration
test systems
• Verification of connector and cabling integrity
• Confirm machine vibration alarm trip points are set properly and ensure
end-to-end functionality of vibration monitoring systems.
Customer Support
IMI Sensors is a PCB Group Company, and we are 100% committed to the PCB
Group’s pledge of ‘Total Customer Satisfaction.’ If at any time you have questions
or problems with the 699A07 system, please contact an Application Engineer at IMI
Sensors:
Telephone: 716-684-0001
Toll Free: 800-828-8840
Email: imi@pcb.com
Cautionary Notes
• Loads of up to 800 gram (28.3 oz) can be mounted directly to the
699A07 mounting platform. Larger loads may be applied to the platform,
however, if prolonged testing of a heavy load is planned, we recommend
using an external transducer suspension system. Under these
conditions the vibration waveform should be viewed on the oscilloscope
to aid in positioning the test transducer and platform to reduce distortion
that can occur with very heavy weights.
• The 699A07 should always be operated on a stable, flat surface.
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• The 699A07 is designed for field test applications but care must be taken
to maintain the integrity of the mounting platform assembly.
• Hearing protection recommended when operating the 699A07 for an
extended amount of time.
Supplied Accessories
Accessories pictured below are included with each 699A07 Portable Vibration
Calibrator.
USB Flash Drive Pre-Loaded with Report Generating Worksheet
Mounting Wrench
1 – Mounting Pad (080A118)
2 – ¼-28 to ¼-28 Adaptor
(081B20)
3 – 10-32 to ¼-28 Adaptor
Accessory Pouch
Universal Power Supply
and Plug Adaptors (600A25)
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Optional Fixturing and Accessories
For operation in certain applications, such as calibration of non-contact
displacement sensors, IMI offers optional mounting fixturing. Reference the table
below when ordering these optional adaptors and accessories.
Accessory
Description
600A22
Proximity probe adaptor kit, supports probes with common case
threads ranging from M6 to 3/8”. Includes Mitutoyo micrometer
and nickel plated 4140 steel target.
600A23
Proximity probe adaptor kit, supports probes with common case
threads ranging from M6 to 3/8”. Includes Mitutoyo micrometer
(metric) and nickel plated 4140 steel target.
600A24
Mounting accessory kit for 699A07 Series Portable Vibration
Calibrators to adapt to ¼-28 threaded mounting platforms.
Includes studs/inserts (1/4-38, 10-32, 6-32 and 5-40) and bases
(for adhesive, magnetic and custom thread patterns).
Replacement Accessories
Accessory
Description
600A25
18 Volt, 1 amp power supply/charger for 699A07 Portable
Vibration Calibrator, universal 100-240 V, 50/60 Hz.
600A26
Replacement battery for 699A07 Series Portable Vibration
Calibrators.
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699A07 Operation Guide
For the following section, “point” is defined as the numerical value of the amplitude
at a given frequency. “Record” is defined as the collection of all numerical calibration
points at different frequencies and amplitudes saved together.
Basic Operation
For the basic operation of the 699A07, a vibration sensor and appropriate cable are
needed. Typically, the 699A07 is used as a vibration excitation source and as a
readout device with the vibration sensor connected to the 699A07’s Test Sensor
BNC Input. Alternatively, the 699A07 unit can be used to test different types of
vibration equipment (i.e. a vibration meter or vibration monitoring system), in which
case the sensor will be directly connected to the vibration measurement equipment
and the 699A07 is used just as a controlled excitation source.
Test Setup
1. Mount your sensor to the 699A07 mounting platform
• The 699A07 sensor mounting platform is threaded for a ¼-28 stud. Select an
appropriate adaptor for mounting the sensor.
• While tightening the sensor, secure the 699A07 mounting platform with the supplied
wrench to prevent damage from torque.
2. Connect sensor under test (SUT) to “Test Sensor In.” Make sure that connections are
secure.
3. Power the unit ON by pressing and holding the FREQUENCY dial for 3 seconds.
NOTE: It is good practice to perform calibrations on battery power. Disconnecting
from line power ensures a power surge will not cause the calibrator to power down
during test. If excess current is detected during use, the portable calibrator shuts
down to prevent damage.
Selecting Input Mode
4. The 699A07 can accept ICP® as well as AC voltage and AC current output sensors.
Press and hold the AMPLITUDE dial to select between ICP®, Voltage Mode or
Modulated Current mode. Modulated Current mode is only available if the firmware
option is ordered, otherwise user will not see this mode as an option.
Note: ICP® (or IEPE) mode sensors are the most popular type of accelerometer
transducers and require a 2 mA to 20 mA constant current supply to operate.
The 699A07 unit supplies the necessary constant current to power this class of sensors.
Voltage output sensors are typically moving coil velocity sensors but can also be the
voltage output of a signal conditioner associated with any type of vibration transducer
such as the output from the probe driver in a proximity probe system. Refer to the Sensor
Signal Measurement Electronics (SUT Input Characteristics and Considerations) for
details.
Setting the Frequency and Amplitude Units
5. Select the correct Frequency Units for your test by pressing the FREQUENCY dial to
enter into the CALIBRATION OPTIONS menu:
• Use the FREQUENCY dial to highlight TEST SETTINGS then press.
• Within the Test Settings Menu rotate the FREQUENCY dial to highlight
FREQUENCY UNIT then press to toggle between Hertz and CPM.
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6. Select the correct Amplitude Units for your test by pressing and releasing the
AMPLITUDE dial. The following options are available:
Acceleration
Velocity
Displacement
g’s pk
g’s RMS
m/s
2
pk
m/s
2
RMS
in/s pk
in/s RMS
mm/s pk
mm/s RMS
mils p-p
µm p-p
7. Select the desired vibration amplitude and frequency for testing by turning the
AMPLITUDE and FREQUENCY dials clockwise to increase or counter clockwise to
decrease the setting.
• Slow Turns – settings will increase or decrease by single steps
• Fast Turns – settings will increase or decrease by larger increments
Record and Save Calibration Points
8. Once the frequency and amplitude are set to desired values, with the file menu set to
“Save Point,” press the FILE dial to store the calibration data point.
9. Repeat steps 7 through 9 to set the frequency and amplitude to increment to the next
calibration data point and save.
Completing and Storing Record to Memory
10. Once all data points have been saved in a record and record is complete, rotate FILE
dial and press it to select “End Record.”
• The screen will prompt with:
11. Rotate the FILE dial to “Edit” to enter the model number, serial number and axis. The
FILE menu for this screen also includes the tools “Next” and “Back.”
• Push the FILE dial to choose “Next,” which goes to the next save screen.
12. To “Save” the record without inputting an annotation, press the FILE dial two more times.
13. Rotate the FILE dial to “Edit” and press to store any annotations or additional notes (such
as technician initials, etc):
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• Turn the FILE dial to the left and right to select each individual letter or number you
wish to input as part of an annotation. Push the FILE dial to save each character.
• Rotate the FILE dial and select “Save.” This will save all data points in the listed
record number. The record number shown on the screen increments automatically.
Transfer Records to USB Flash Drive
14. Rotate FILE dial and press to select “Tools.”
15. Rotate FILE dial and press to select “USB Menu.”
• A USB flash drive must be connected to the unit. The USB must be formatted to
FAT32. You can use the 699A07 or a PC to format the flash drive.
16. To copy all data points and records to a USB Flash Drive, rotate FILE dial and press to
select “Copy All Records.”
• This will leave current records on unit memory and also create a copy on the USB.
17. To move all data points and records to USB, rotate FILE dial and press to select “Move
All Records.”
• This will remove current records on unit memory and move onto the USB.
Note: The USB hardware may not always recognize a USB flash drive if it is
plugged into the USB port while the 699A07 is in sleep mode. IMI Sensors
recommends connecting the USB drive while the 699A07 is on and operational.
Powering Off
19. Suggested Best Practice: Before powering the unit OFF, reduce the vibration
amplitude. The 699A07 retains the settings used prior to shutdown when it is
powered back ON. Reducing the amplitude prior to shutdown ensures the sensor
under test will not be jarred when the 699A07 is powered ON.
20. Power the unit OFF by pressing and holding the FREQUENCY dial for
approximately 3 seconds.
• To preserve battery charge, the 699A07 will automatically power off after 20
minutes of inactivity when not plugged in to the charger.
After Testing
21. Suggested Best Practice: Plug the 699A07 into an AC power source when not
in use. This will ensure the batteries are fully charged for your next test and also
help to maximize the lifespan of the batteries.
22. Periodic calibration checks are recommended:
• A dedicated “verification sensor” can be used to check the system readings and
results. By using a dedicated sensor, you can ensure that the system is providing
the same result during each test.
• The 699A07 should be returned to IMI Sensors for regular recalibration or for any
maintenance or repair. The most current factory calibration date or the calibration
due date is displayed on the LCD screen during the 699A07 boot up sequence. The
default due date is set for 12 months after the last factory calibration, but the
calibration interval can be user defined to be anywhere from 1 to 72 months, or set
up to never expire.
Report Generation Workbook
Calibration data can be saved into the 699A07’s internal memory and easily
exported to a personal computer using a USB Flash Drive.
The 699A07 Portable Vibration Calibrator includes a pre-formatted USB Flash Drive
with a Microsoft Excel Report Generation Workbook for the creation of customizable
calibration certificates. The Excel file provides an intuitive interface which allows a
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user to create and print a calibration certificate with just a few mouse clicks. In order
to use the file, make sure macros are enabled, otherwise Excel won’t be able to load
data and create the certificates.
The Excel workbook consists of the following worksheets or tabs:
• FRData – Use this tab to create a frequency response certificates in just 2 steps:
1. Clicking on Import Data from File button prompts the user to select and import a
.csv calibration data file previously created by the 699A07
2. Once data is loaded into the table, click View Certificate to see and print a
calibration certificate containing the frequency response data (the reference
frequency for the calibration certificate is 100Hz and can be changed by the user as
needed)
Note: If testing a charge-mode accelerometer and calibration certificate in pC
units is desired, click the box at top left of the FRData tab and enter the sensitivity of
the charge amplifier in the “mV/pC” box located at cell D8. See the section
“Calibrating Charge-Mode Accelerometers” for more information.
• LINData – Use this tab to create linearity response certificates. The worksheet
applies linear regression to interpolate the data. The Max Linearity is calculated for
the worst deviation of a particular point from the best-fit straight line (BFSL) of all
tested points. The table also displays the specific results at each test level.
The LINData worksheet has 2 tables. The left table should be used for creating
dynamic linearity data calibration certificates in just 2 steps:
1. Click on Import Data from File to select and import a .csv calibration data file
previously created by the 699A07
2. Once data is loaded into the table, click View Certificate to see and print a
calibration certificate containing the linearity response data. The worksheet expects
the data points to be taken at the same frequency (speed). A checkbox option
labeled Set Y-intercept to zero is available to force the interpolation to go through
the origin point.
The right table in the LINData worksheet is used to create a DC proximity probe
curve or linearity certificate for 4-20 mA vibration transmitter. Creating a DC
proximity probe curve requires the 600A22 or 600A23 proximity probe adaptor kits
and a DC voltmeter (not included). Creating a linearity certificate for a 4-20 mA
vibration transmitter requires DMM set to DC current input.
1. Select the appropriate vibration scale (Acceleration, Velocity or Displacement) by
clicking in cell H12 and selecting from drop down menu.
2. Select the appropriate units (g’s pk, g’s RMS, m/sec
2
pk, m/sec2 RMS, in/sec pk,
in/sec RMS, mm/sec pk, mm/sec RMS, mils p-p or µm p-p) in cell H13. Make sure
cell H12 is set to the right scale first.
3. Enter known amplitude and output for the first test point next to “Starting Point”
and repeat for each additional test point moving down the table. Once data is
entered into the table, click View Certificate to see and print a calibration certificate
containing the linearity response data.
• FRCert - Displays the frequency response calibration certificate using the current
data and information from FRData.
• LINCert - Displays the linearity response calibration certificate using dynamic
linearity data from LINData.
• SLINCert - Displays the linearity response calibration certificate using static
linearity data from LINData.
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• Route Creator – If firmware option 600A31 is ordered, this tab can be used to
create semi-automated tests with instant pass/fail notification for almost any
vibration sensor. See “Calibration Route” for more information.
Additional Features
Delete
The “Delete” feature can be found under the FILE dial > “Delete.” When “Delete” is
selected, the shaker will stop moving and four options will appear:
1. “Delete Point” will delete a current point.
2. “Delete Record” will delete the entire current record.
3. “Delete All” will delete all data points and all records that are stored on the internal unit
memory.
4. “Back” will return to the main screen.
USB Options
The “USB Options” feature can be found under the FILE dial > “Tools” > “USB
Menu” > “USB Options.” When “USB Options” is selected, the following information
will appear on the screen:
• “Status” – USB flash drive connected or not connected.
• “Partition” – Format of USB flash drive connected to the unit.
• “Available” – Memory space available on USB flash drive.
• “Required” – Space required to save all records on USB flash drive.
And the following actions are available:
• “Eject Drive” will safely eject the USB flash drive from the unit.
• “Format USB” for formatting the USB flash drive. (FAT32 partition)
• “Back” to go back to the USB Menu.
Date and Time
The “Date and Time” feature can be found under the FILE dial > “Tools” > “Options”
> “Date and Time.”
1. Press the FILE dial to select “Adjust.”
2. Turn the AMPLITUDE dial to the select the current month, day and year and push the
FREQUENCY dial to confirm or the AMPLITUDE dial to change.
3. Press the AMPLITUDE dial to select “yes” this is correct.
4. Turn the AMPLITUDE dial to select the current hours and minutes then push the
FREQUENCY dial to confirm the time is correct.
5. Press the AMPLITUDE dial to select “yes” this is correct.
Calibration Interval
The “Calibration Interval” can be adjusted under the FILE dial > “Tools” > “Options”
> “Calibration Interval.”
1. Select “Adjust” and press FILE dial.
2. Turn AMPLITUDE dial to select number of months for Calibration Interval.
• Suggested Best Practice: 12 months. The calibration interval can be defined to be
anywhere from 1 to 72 months, or set up to never expire.
3. Press FREQUENCY dial to confirm selected Calibration Interval.
Traceability
The “Traceability” feature can be found under FILE dial > “Tools.”
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1. Press FILE dial to select “Traceability.” A screen with the following information will
appear:
• Model
• Serial Number
• Firmware Revision Number
• Calibration Date
• Reference Sensor Sensitivity
• PRD-P
• NIST Traceability Number
• PTB Traceability Number
2. Press FILE dial to go back to main screen and shaker will go back to shaking.
Test Settings
The “Test Settings” menu can be found by pressing FREQUENCY dial > “Test
Settings.” A screen with the following will appear, use the FREQUENCY dial to
highlight and toggle all settings:
• Back – returns user to “Calibration Options” menu
• Cal Route: N/A, Active or off
o N/A indicates the Calibration Route firmware option has not been
purchased. Calibration Route allows users to program semi-automated test
points with instant pass/fail notification. See “Calibration Route” section for
more information. Contact IMI Sensors to unlock this feature.
• Source: Internal or External
o If external is selected the shaker can be controlled with an external source.
See “Input/Output” for more information.
• Frequency Unit: Hertz or CPM (cycles per minute)
• Sensor Type: ICP®, Voltage or Modulated Current
o Use ICP® for most accelerometers, Voltage for proximity probes and
moving coil sensors, Modulated Current for high-temp turbine vibration
sensors with AC current output. See “Selecting the Input Mode” for more
information. Modulated current is optional; contact IMI Sensors to unlock
this feature.
• Sensor Readout: mV/EU or mV
o Changes the display to show the sensor under test’s sensitivity (output
voltage divided by input vibration, mV/EU) or the sensor under test’s raw
AC output voltage.
Amplitude Units
Amplitude units that are seldom or never used can be turned off by using the
“Amplitude Units” feature, found by pressing FREQUENCY dial > “Amplitude Units.”
The “Amplitude Unit Screen” shows all 10 available amplitude scales on model
699A07 Portable Vibration Calibrator. Use the FREQUENCY dial to highlight each
scale and press the dial to toggle the scale on or off. A filled circle next to the scale
indicates it is active. An empty circle next to the scale indicates it is inactive. Inactive
scales do not appear when cycling through scales using the AMPLITUDE dial
during normal operation.
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To go back to the “Calibration Options” menu use the FREQUENCY dial to highlight
“Back” then press.
Calibration Route
Firmware Option: 600A31
The Calibration Route firmware is factory-installed on every Model 699A07. For the
firmware to be activated, it must be ordered as a separate line item (Model 600A31).
If ordered at the same time as Model 699A07, the firmware will be activated in the
factory prior to shipment. If ordered after the fact, IMI Sensors will provide an
activation code that the user can enter in order to activate the firmware in the field.
Contact IMI Sensors for additional ordering and installation information.
The Calibration Route firmware allows users to create and run semi-automated
frequency response and amplitude linearity tests for vibration sensors on model
699A07 with instant pass/fail notification. Tests or “routes” are created in the Report
Generation Workbook then uploaded to the 699A07 via supplied USB drive. Once
uploaded the test is activated. But the test can also be de-activated at any time,
putting the 699A07 back into manual operation mode. When a Calibration Route is
active the 699A07 can only adjust to the pre-defined amplitude and frequency points
that have been programmed.
Creating A New Test (Route)
Version 2010 or later of Microsoft Excel® is required for the CalRoute features in
Report Generation Workbook to operate correctly. Drop-down arrows for frequency
and amplitude units may not appear if using older versions of this software.
1. Open the Report Generation Workbook (version 3.0.2 or later required) using
Microsoft Excel®
2. At bottom, select the Route Creator tab
3. Route Name: Enter the name of the test in cell B7 next to “Route Name”. When the
test file is created and saved the file name will be this value followed by
“_Route.pvc”.
4. Frequency Unit: Use the drop down arrow to choose the frequency unit (Hertz or
CPM) in cell B8. One cannot toggle between Hertz and CPM during the test.
5. Amplitude Unit: Use the drop down arrow to choose the amplitude unit (g pk, g
RMS, m/sec2 pk, m/sec2 RMS, in/sec pk, in/sec RMS, mm/sec pk, mm/sec RMS,
mils p-p or µm p-p) in cell D7.
6. Amplitude: If desired, enter the amplitude for all test points in cell B9 next to
“Amplitude”. This is useful for a frequency response test where all test points will
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have the same amplitude value. If creating a linearity test leave this cell blank since
the amplitude values will change for each test point.
7. Sensor Type: Use the drop down arrow in cell F7 to select the sensor type (ICP®,
Voltage or Modulated Current).
8. Sensor MN: If desired, enter the sensor model number in cell F8. This is optional.
The sensor model number that is entered will print on the calibration certificate. It
can be changed at any time. If the model number is not consistent leave this cell
blank.
9. Lower Bound: In cell D8, enter the minimum sensitivity value for the sensor under
test at each test point that will pass calibration test. For example, the minimum
acceptable sensitivity for 100 mV/g accelerometer with +/- 5% sensitivity tolerance is
95 mV/g, thus lower bound would be: 95.00.
10. Upper Bound: In cell D9, enter the maximum sensitivity value for the sensor under
test at each test point that will pass calibration test. For example, the maximum
acceptable sensitivity for 100 mV/g accelerometer with +/- 5% sensitivity tolerance is
105 mV/g, thus upper bound would be: 105.00.
11. Press Table Auto-Fill. The grey cells in the table will automatically populate with the
values chosen in steps 3-10. All cells will populate. The table is capable of creating a
30-point test. But any number of test points can be programmed. Before creating the
route file user must delete values in cells for test points that should not be created
(see example).
12. Enter the desired Frequency values for each test point in column A beginning with
cell A13. The test will be conducted in the exact order as programmed. The first test
point will be as programmed in row 13; the next will use row 14 values and so on.
a. The 699A07 can only simulate vibration in CPM values that are multiples of
60. I.e. 1800 CPM, 3600 CPM, 4200 CPM, etc. If a value is entered that is
not a multiple of 60, the 699A07 will adjust down to the nearest CPM value
that is a multiple of 60.
b. Example: 1900 CPM is entered as a test point. The 699A07 will adjust to
1860 CPM and 1860 CPM will be displayed.
13. Enter the desired Amplitude values for each test point in column B beginning with
cell B13. Skip this step if all amplitude values have been automatically populated
using the Table Auto-Fill button.
14. Modify any individual test point as desired. For example, most accelerometers have
a wider sensitivity tolerance at extreme low and high frequencies. User may wish to
expand the upper and lower bounds for certain test points.
15. Delete undesired test points. For example, a 10-point test only requires rows 13-22.
The Table Auto-Fill feature saves typing but one must delete data from cells that are
not needed. For a 10-point test rows 23-42 should be blank thus they can be
highlighted and cleared.
16. Press Create Route File. A .pvc file will be created, save this file to the USB drive in
the Calibration_Route folder.
a. When prompted to save, open the USB Disk
b. Open the IMI_PVC folder
c. Open the Calibration_Route folder
d. Press save
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Example Accelerometer Test (Route)
An example of a 10-point accelerometer test, created in the Report Generation
Workbook, is shown above. Some helpful notes…
• When run, this test will shake the accelerometer at 1g pk at all points. If the shaker
cannot generate 1g pk it will output the maximum vibration possible given the
sensor’s weight and test speed. The shaker will not allow user to program points
that can damage the shaker.
• The test will begin at 10 Hz and end at 5000 Hz, with test points at 50,100, 300,
500, 1000, 2000, 3000 and 4000 Hz as well.
• If the sensor under test’s sensitivity is above 105 mV/g or below 95 mV/g the
699A07 will alert the user that test point failed.
• The file name will be CaseAccel_Route.pvc, when uploading to the 699A07 one
would choose this file.
• ICP® power is active for all test points. If this test were applied to a self-powered
sensor data would be invalid. One would select “Voltage” for a self-powered sensor
such as a moving coil velocity transducer.
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Example Proximity Probe Test (Route)
An example of a 10-point proximity probe test, created in the Report Generation
Workbook, is shown above. Some helpful notes…
• This test will simulate vibration at 3600 CPM for all test points.
• This is a linearity test. Vibration will start at 1.0 mils p-p and escalate to 10.0 mils p-
p. The sensor will be evaluated every 1.0 mils.
• The test is designed for a 200 mV/mil proximity probe with 5% tolerance. Thus
sensitivity of 190-210 mV/mil passes calibration. If outside those values the 699A07
will indicate the test point has failed.
• The sensor type is voltage. This means ICP® power is turned off. The proximity
probe is being powered by its probe driver. To run this test the technician must
connect the output of the probe drive to “Test Sensor In” on the 699A07.
• The name of the file will be ProxProbe_Route.pvc.
• The model number 330101 will print on each test report created using this route. It
can be modified on the certificate if desired to add thread lengths, cable length, etc.
Loading & Activating a Calibration Test (Route)
With the calibration test saved as a .pvc file to the Calibration_Route folder on the
USB and the USB inserted into the port on the 699A07 the following instructions
detail how to upload to model 699A07 and activate:
1. Press the FREQUENCY dial to enter “Calibration Options” menu, rotate to highlight
TEST SETTINGS and press again to enter “Test Settings” menu.
2. Use FREQUENCY dial to highlight and click selection next to “Cal Route:”. Selection
will be “Off” or “Active” depending upon previous status. When clicked user will enter
into “Route Option” menu.
a. If display indicates “Cal Route: n/a” the 600A31 firmware has not been
purchased. Contact IMI Sensors to add this firmware to the 699A07.
3. Use FREQUENCY dial to highlight and click on LOAD FILE FROM USB
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4. Up to six route files (tests) are shown. Use FREQUENCY dial to highlight and click
on desired file.
5. Display will indicate “Route Load Successful Activate Now?” To activate press the
AMPLITUDE dial.
a. To load to memory but not activate the test press FREQUENCY.
The calibration test is now loaded and active. Rotating the FREQUENCY dial allows
user to scroll through programmed test points without saving data.
Executing the Semi-Automated Calibration Test (Route)
The calibration test has been created and saved to the USB. It has also been
uploaded and activated in the 699A07 using the previous section. The following
instructions detail usage of the 699A07 while the pre-programmed test is active. To
use the 699A07 in manual mode again the calibration route must be de-activated
(see next section).
• With a Calibration Route active the 699A07 will only cycle to the pre-programmed
test points. The FREQUENCY dial can be used to cycle and preview test points
without saving data.
• Pressing the amplitude dial will not change amplitude scales while route is active.
• Data is still stored to internal memory when Calibration Route is active if FILE dial is
pressed while “Save Point” is displayed. Delete, Save, Tools and End Record
functions operate as previously detailed in “Basic Operation” section.
1. Once the Calibration Route is activated shaker will vibrate at first pre-programmed
test point. Use FILE dial to display “Save Point” then press the dial.
2. A pass/fail indication is displayed. The frequency, amplitude, sensitivity of sensor
under test, upper and lower bounds are shown. If sensitivity is between upper and
lower bounds “Pass” is shown at top right. If sensitivity is outside of bounds “Fail”
is displayed. Press FILE dial to continue to next test point.
a. If test point fails technician can delete the point and try again by using FILE
dial to display “Delete” then press and make appropriate selection. Deleting
the point will step the test back to the previously failed test point.
3. Continue the test point-by-point by pressing the FILE dial with “Save Point”
displayed. The pass/fail screen will appear after each point.
4. When test is complete the model and serial number entry screen is displayed. Enter
data as outlined in “Basic Operation” section or skip by pressing FILE with “Next”
displayed.
5. A final data entry screen is displayed, with “Save” displayed press FILE to save the
calibration test results to internal memory and begin next test.
Creation of print-able test reports is done as previously mentioned. Follow
instructions in “Basic Operation” section to create frequency response and linearity
calibration certificates in Microsoft Excel®.
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Route Option Menu
The Route Option menu is accessed by pressing FREQUENCY dial then using the
dial to highlight and click on Test Settings, then using the dial to highlight the text
next to Cal Route: and clicking on it. The menu has the following functionality and
the FREQUENCY dial is used to navigate and select:
• Back – returns to Test Settings menu
• Activate Route – activates the calibration test stored in memory
• Deactivate Route – returns the 699A07 to manual operation, de-activates semi-
automated test
• Load File From USB – shows a list of up to six pre-programmed tests (routes) read
from Calibration_Route folder on USB drive
• Delete Route – returns the 699A07 to manual operation and also deletes the pre-
programmed test from memory
• File Information – displays name of semi-automated test, number of test points
and date it was created. If no test is active pressing file while this option is
highlighted does nothing.
• Eject USB – allows user to safely remove the USB drive from 699A07
Definition of Frequency Units
• Hertz (Hz) is defined as the number of periodic cycles per second and it is a
standard unit for measuring signal frequency.
• CPM stands for Cycles Per Minute. CPM is commonly used for testing industrial
sensors that monitor rotational vibration. 1 Hz=60 CPM
Definition of Amplitude Units
• Root Mean Square (RMS) is a calculation that takes the square root of the average
of the squared amplitudes from a set of data. This type of measurement takes all
amplitudes of a signal into account rather than just one, making it an accurate tool
for an overall calculation.
• Peak (pk) bases calculations on the highest value of the signal generated during
testing. For a sinusoidal wave (as is produced by the 699A07), the peak value is
calculated by RMS*
2. The 699A07 does not measure a true peak value, but
instead estimates the value mathematically based upon the RMS value.
• Peak to Peak (p-p) is a calculation of the difference between the highest positive
peak and the lowest negative peak of a recorded sine wave. The
p-p value is calculated as two times the peak value.
• Gravitational acceleration (g) is the acceleration experienced naturally by objects in
earth’s gravitational field. It is approximately equal to
9.80665 m/s
2
.
Figure:
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Mounting Basics
Connecting Sensor to 699A07 Platform
1. Mating surfaces of the mounting platform and sensor should be flat, parallel and free of
dirt, paint, epoxy, scratches, etc.
2. Threads in platform, sensor and adaptor (if needed) must match to ensure a proper fit
and that testing is free of errors. Clean any worn threads with a tap or die and coat them
in silicone grease for best results.
3. An adaptor may be needed to connect the sensor to the armature. The 699A07 platform
requires a ¼-28 thread.
4. Silicone grease can be applied to the mating surfaces and threads to ensure good
mechanical coupling. This is particularly important when testing at high frequencies.
5. For threaded sensors, please follow the sensor manufacturer’s torque recommendation.
Tightening and Loosening Connections
1. When tightening or loosening the connection between the sensor and the 699A07
mounting platform, secure the mounting platform with the supplied wrench.
2. It is important to keep sensors and fixtures centered and straight when attaching them
to the 699A07 mounting platform. This will ensure a stable, even connection and
eliminate potential alignment issues.
Input / Output
EXTERNAL SOURCE IN Input BNC
It is possible to drive the 699A07 by using an external signal source or a function
generator. First, connect a signal source to the EXTERNAL SOURCE IN BNC Input
located on the top left corner of the unit. To enable the EXTERNAL SOURCE IN
input, press the FREQUENCY dial to enter the “Calibration Options” menu then
rotate FREQUENCY dial to highlight and click on TEST SETTINGS. Next, use
FREQUENCY dial to highlight selection next to “Source:” and toggle between
“Internal” and “External” by pressing the dial, select “External”.
1. When in Ext Sig mode, the vibration amplitude is measured and displayed on the
screen, however, the frequency and amplitude of the shaker is controlled by the
external source, not by the 699A07. The frequency of the input signal is not displayed
on this mode.
2. The amplitude and sensitivity values displayed on the screen are for reference
only. The measurements are not accurate while in Ext Sig mode and do not fall
under the published specifications for the product.
Do not exceed 1 V RMS! Overdriving the unit may cause clipping, unwanted
distortion and damage to the unit.
MONITOR REFERENCE OUT Output BNC
The 699A07 is controlled by an internal shear mode quartz reference
accelerometer. The voltage output of the reference accelerometer can be monitored
through the available MONITOR REFERENCE OUT BNC output by connecting it to
a readout device (e.g. voltmeter or oscilloscope).
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Diagnostic Screen
The diagnostic screen can be displayed by holding down the file button for
approximately 2 seconds. This screen displays information about the operation of
the 699A07. The information found in this menu is displayed in real time:
Reference ICP Bias Voltage
Test Sensor Bias Voltage
Test Sensor Type: Voltage, ICP® or Modulated Current
Signal Type: Internal or External
Reference THD
Sensor THD
Exit the diagnostic screen by pressing the file button.
TEST SENSOR IN Input BNC
The 699A07 provides the capability to measure the test sensor’s voltage signal,
replacing the need for an external DMM or data acquisition. The input electronics
can be configured for Voltage, ICP® or Modulated Current mode as described in
Step 4 of Basic Operation earlier in this manual.
The TEST SENSOR IN input BNC is capable of measuring a voltage input of up to
10V AC pk-pk. As an ICP® sensor signal conditioner, it measures up to 10V pk-pk
AC signal while supplying 5mA ICP® constant current at 25V DC. While in ICP®
mode, the input circuit is also monitoring the ICP® sensor Bias Voltage and will
indicate a Bias Fault when the DC voltage is below 2V DC or above 15V DC. The
open circuit voltage of the ICP® supply will be 25V DC. This open circuit and the
ICP® Bias Voltage may be checked using the diagnostic menu.
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Theory of Operation
Instrumentation
The Model 699A07 Portable Vibration Calibrator internal electrical system is
comprised of several different mechanisms:
• Electrodynamic Shaker
• Power Amplifier
• Reference Accelerometer
• Signal Generation Electronics
• Sensor Signal Measurement Electronics
• LCD Digital Display
• 3 Dials with Detent and Integrated Pushbuttons
• 12 VDC, 4 Amp Hr Solid Gel Battery
• External Charger
• Three different BNC ports: “External Source In,” “Monitor Reference Out”
and “Test Sensor In”
• USB Flash Drive Port
The LCD display continuously shows the frequency of the shaker drive signal and
the vibration amplitude of the mounting platform as measured by the reference
accelerometer.
The reference accelerometer is a PCB Piezotronics ICP® quartz shear sensor,
integrated into the mounting platform. A calibration “standard” maintained by IMI is
used to calibrate the 699A07 as a complete system and provides NIST traceability.
Traceability information can be viewed under the tools menu as described in the
previous section.
The power amplifier is specifically designed to provide the current required to drive
the electrodynamic shaker. The electronic signal processing system produces a
variable frequency sine wave to the power amplifier, which becomes the source of
the driving signal to produce the vibration at the mounting platform.
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The frequency of the shaker drive signal is controlled by the front panel
FREQUENCY dial. The amplitude of the shaker drive signal is controlled through a
feedback loop, to maintain the stability of the actual motion. Adjusting the front
panel AMPLITUDE dial adjusts the target vibration amplitude.
Pressing the AMPLITUDE dial toggles the amplitude measurement units through
the following choices if all units are active:
Acceleration
Velocity
Displacement
g pk
g RMS
m/s
2
pk
m/s
2
RMS
in/s pk
in/s RMS
mm/s pk
mm/s RMS
mils p-p
µm p-p
Users can de-activate amplitude scales by using the “Amplitude Units” menu. See
the section “Amplitude Units” for more information. If desired scale is not appearing
while pressing AMPLITUDE to cycle through scales, then it has likely been turned
off in the “Amplitude Units” menu.
Turning the FILE dial activates the file menu. Turn the FILE dial to toggle between
the below options and press the dial again to select.
Save Point
End Record
Delete
Tools
Next
Edit
Back
Delete Point
Delete Record
Delete All
Back
USB Menu
Options
Traceability
Back
Below are the options to choose from when the USB Menu is selected. Turn the
FILE dial to the proper option and press it to select.
Copy All Records
Move All Records
USB Options
Eject
Format USB
Back
Below are the options to choose from when the Options menu is selected. Turn the
FILE dial to the proper option and press it to select.
Date and Time
Calibration Interval
Set Resistance Value
Adjust
Adjust
Adjust
Back
Back
Back
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Pressing and holding the file button will return to the main calibration screen from
any new level.
Battery and Charger
The Model 699A07 can be operated from AC line power or from its internal
rechargeable battery. When the external power supply is connected, it becomes the
primary power source, operating the unit while simultaneously charging the battery.
NOTE: It is good practice to perform calibrations on battery power. Disconnecting
from line power ensures a power surge will not cause the calibrator to power down
during test. If excess current is detected during use, the portable calibrator shuts
down to prevent damage.
Battery power is supplied by a sealed solid gel lead acid 12 VDC rechargeable
battery. The battery can be permanently damaged if completely drained. To
prevent damage, the 699A07 will automatically shut off when the battery power level
gets too low. Suggested Best Practice: Keeping the battery fully charged ensures
the unit is always ready for use.
Under mild operating conditions (lower mass transducers at lower test amplitudes),
a fully charged battery will allow the 699A07 to operate for up to 18 hours. The
charge life of the battery depends on both the length of use and the amount of
power (dependent upon payload, frequency and amplitude) required for a particular
test. When testing requires high vibration levels, the charge life will be shorter than
during less rigorous testing. For example, continuous testing of 100 gram payload
at 10 g pk will drain the battery charge in approximately 1 hour.
A Battery Charge Indicator is displayed on the LCD screen to approximate the unit’s
remaining charge life. Replacement batteries (Model 600A26) and power
supplies/chargers (Model Number 600A25)
are available from IMI Sensors.
The 699A07 calibrators continuously monitor the state of battery charge during
operation, storage and charging. During operation, if the battery capacity falls near
minimum, the unit will shut off after approximately 2 minutes of inactivity rather than
the usual 20 minutes. During storage, if the battery voltage falls near the minimum,
the unit will go into deep sleep, requiring connection of AC power and reset of time
and date before resumption of operation. During charging, the unit continuously
displays charging indication and state of charge, depending upon operation level
and time of charge.
Battery Information and Care
• The unit is delivered in a partially charged state. Fully charge unit for 20
hours before using for the first time. (The unit cannot be overcharged by
keeping it plugged into the power supply.)
• To recharge the unit, use only the universal power supply included. All
batteries lose energy from self-discharge over time and more rapidly at
higher temperatures. A full charge cycle can take up to 20 hours.
• If not used for a prolonged period of time, recharge every 2 months.
• Suggested Best Practice: Charge unit fully prior to field use. Recharge
the unit as soon as possible after use.
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Specifications and Performance
General
Frequency Range (for acceleration)
(operating, 100 gram payload)
5 Hz – 10 kHz
300 CPM - 600k CPM
Maximum Amplitude
(100 Hz, no payload)
20 g pk
196 m/s2 pk
15 in/s pk
380 mm/s pk
50 mils pk - pk
1.27 mm pk – pk
Maximum Payload
[1]
800 gram
[1] Operating range reduced at higher payloads. Reference shaker loading curves
for full details
Accuracy of Readout
measured with 10 gram quartz reference accelerometer
Acceleration (10 Hz to 10 kHz)
± 3%
Acceleration (5 Hz to 10 kHz)
± 5%
Velocity (10 Hz to 1000 Hz)
± 3%
Displacement (30 Hz to 150 Hz)
± 3%
Amplitude Linearity (100 gram payload, 100 Hz)
< 1% up to 10 g pk
Waveform Distortion
(100 gram payload, 30 Hz to 2 kHz)
< 5% THD (typical) up to 5 g pk
Units of Readout
Acceleration (peak/RMS)
g
m/s2
Velocity (peak/RMS)
in/s
mm/s
Displacement (peak to peak)
mils
µm
Frequency
Hz
CPM
Test Sensor Sensitivity
mV/EU
[2]
[2] EU can be [g], [m/s2], [in/s], [mm/s], [mils] or [µm].
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SUT Specifications
Power Requirements
Internal Battery
(sealed gel lead acid)
12 VDC, 4 amp hours
12 VDC, 4 amp hours
AC Power (for recharging battery)
110 – 240 VAC,
50 - 60 Hz
110 – 240 VAC,
50 - 60 Hz
Input Power Rating for charger
18 VDC, 1 A
Operating Battery Life
[3]
100 gram payload, 100 Hz, 1 g pk
18 hours
100 gram payload, 100 Hz, 10 g pk
1 hour
[3] As shipped from factory in new condition
Temperature
Operating
32 °F – 122 °F
0 °C – 50 °C
Physical
Dimensions (H x W x D)
8.5 x 12 x 10 in
22 x 30.5 x 28 cm
Weight
18 lb
8.2 kg
Sensor Mounting Platform
Thread Size
¼ - 28
Shaker Loading
Maximum advisable vibration levels are dependent upon the maximum frequency of
operation and the payload. The chart below shows the maximum vibration levels as
a function of both frequency and payloads. Payloads exceeding 800 gram should
not be tested on the Model 699A07.
Excessive loads may result in damage to the moving coil and flexure. Care must be
taken when testing payloads with large footprints, particularly those with an offset
SUT input Voltage range
10 V AC pk-pk
SUT ICP current
5 mA
SUT Bias offset measurement range
0-25 V DC
SUT Bias fault Voltage limits
2 V / 15 V DC
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center of gravity. Severe rocking modes can produce high transverse motion and
lateral loads on the moving coil and flexure, resulting in damage. When fitting test
transducers and fixtures onto the mounting platform, aim to keep the center of
gravity directly above, and in line with the center axis of the ¼-28 threaded hole.
This is a safeguard against side loading the shaker.
In some cases of extremely heavy shaker payloads at high vibration levels
(depending on the frequency), the 699A07 may exhibit both frequency and
amplitude instabilities. In this case, please reduce the excitation amplitude and/or
the payload to eliminate the effect.
The 699A07 electronics incorporates a shaker power amplifier with thermal
protection. If the shaker payload amplitude and run time exceed safe thermal
ranges, the shaker table power amplifier will protect itself and shut off. The unit
should be turned off and allowed to cool before resuming operation.
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Recommended Practices
Operational Verification and Recalibration
As with all calibration systems, periodic verification of the system’s performance is
strongly recommended. This is best done by calibrating a dedicated verification
accelerometer each day that the unit will be used. This practice confirms proper
calibration of the equipment at the time of use. A precision accelerometer with a
quartz sensing element is recommended for performing operational verification.
Results of the verification should be compared to previous results obtained with that
dedicated, controlled accelerometer. If the calibration result of the verification sensor
changes, the 699A07 should be evaluated further to determine the root cause of the
discrepancy.
Field repair of the 699A07 is not possible, so if performance of the 699A07 is out of
specification, it should be sent back to IMI Sensors for evaluation, repair and
recalibration. Please contact IMI at imi@pcb.com or 716-684-0003 for a Return of
Material Authorization (RMA) number.
Standard Checks for Transducers
Linearity and frequency response checks should be performed periodically to
validate vibration transducer functionality.
Linearity is checked by submitting the sensor to different vibration levels while
frequency is kept constant (typically at 100 Hz or any other frequency specified by
the transducer’s manufacturer). The vibration is set to different levels within the
dynamic range of the sensor, trying to cover (as much as possible) from low to high
operating levels. The sensor output is recorded and checked if it remains
proportional (linear) to the sensor excitation input. Alternatively, the sensor
sensitivity can also be recorded and its deviation observed for the different test
points (it should not vary too much for sensors that are linear).
The frequency response of a vibration transducer can be tested by checking the
sensor output across different frequency points within the operational frequency
range of the transducer. Typically, the vibration level of the unit is set at a constant
value (10m/s² and 1g are common choices for accelerometers) and the sensor
output (or the sensor sensitivity) is observed and recorded at different frequency
points.
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Typical Accelerometer & Velocity Sensor Checkout
Accelerometers & velocity sensors are tested by performing a frequency response
calibration. This is done by measuring the sensitivity of the sensor at a variety of
frequencies within its linear range. Per the ISO 16063-21 accelerometer calibration
standard, the amplitude at each frequency is at the discretion of the user and need
not be kept consistent. Best practice is to use amplitude safely above the noise floor
and but low enough not to create distortion on the shaker. Thus 1.0 g’s peak is the
most common amplitude used for 100 mV/g accelerometers.
The ISO 16063-21 standard recommends testing at the center frequencies of the
1/3 octave bands. For accelerometers with 10 kHz high frequency response that
would mean 29 different test points, which can be time consuming. Accelerometer
manufacturers test at far less points. In general as long as the test covers the
practical usage of the sensor and the test points are evenly dispersed through the
test range the user will perform a good and thorough test of an accelerometer.
A good practice within industrial applications is to follow the American Petroleum
Institute Standard 670 “Machinery Protection Systems” recommendations for
accelerometer and velocity sensor test points. Standard 670 recommends testing at
the following frequencies for both accelerometers and velocity sensors:
• 10, 20, 50, 61.44, 100, 200, 500, 1000, 2000, 5000 and 10000 Hz
o Model 699A07 is not capable of 61.44 Hz, only integer numbers such as
61 or 62.
For accelerometers the recommended amplitudes in API 670 are:
• 0.15 g’s peak (1 m/sec2 RMS) for 10 Hz
• 1 g peak (7 m/sec
2
RMS) for 20-1000 Hz
• 4 g’s peak (30 m/sec
2
RMS) for 2000-10000 Hz
For velocity sensors the recommended amplitudes in API 670 are:
• 0.92 ips peak (15.92 mm/sec RMS) for 10 Hz
• 3.08 ips peak (55.70 mm/sec RMS) for 20 Hz
• 1.23 ips peak (22.28 mm/sec RMS) for 50 Hz
• 0.62 ips peak (11.14 mm/sec RMS) for 100 Hz
• 0.31 ips peak (5.57 mm/sec RMS) for 200 Hz
• 0.12 ips peak (2.23 mm/sec RMS) for 500 Hz
• 0.06 ips peak (1.11 mm/sec RMS) for 1000 Hz
• 0.12 ips peak (2.39 mm/sec RMS) for 2000 Hz
• 0.05 ips peak (0.95 mm/sec RMS) for 5000 Hz
• 0.02 ips peak (0.48 mm/sec RMS) for 1000 Hz
o Note that velocity is not recommended as a vibration measurement scale at
frequencies greater than 1000 Hz. Thus many sensor manufacturers install
low-pass filters on velocity sensors at 1000 Hz or lower.
Practical Industrial (Predictive Maintenance) Testing Recommendations
While testing to the API 670 or ISO 16063-21 standard is certainly thorough it is not
always practical and is time consuming especially for the predictive maintenance
user. Thus IMI Sensors makes the following recommendations for industrial
vibration:
• For permanent mount accelerometers/velocity sensors routed to an online
monitoring system or junction box, at least test the sensors at 1x and 2x running
speed and confirm both the vibration alert (high) and alarm (high-high).
• For route-based predictive maintenance where one sensor is magnetically mounted
on many machines at many points, perform a complete frequency response test of
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the accelerometer. Its accuracy is important at many frequencies. Test to Fmax on
the vibration analyzer. If high frequency bearing fault detection methodologies are in
use, test the sensor to the highest possible bearing defect frequency.
o Tip: Magnetically mounting sensors greatly reduces high frequency
response. A ferrous magnet target, mounting pad 080A118, is included
with the 699A07. One can install this pad on the shaker and mount
accelerometers magnetically. Always rock the sensor in place as one
would on the machine. Test the accelerometer to Fmax on the analyzer to
see if response is amplified at relevant high frequencies.
Calibrating Charge-Mode Accelerometers
The output of charge-mode accelerometers is in pico-coulombs per g (pC/g). The
“Test Sensor Input” of Model 699A07 can only read AC voltage or current. Chargemode accelerometers can be tested with the Portable Vibration Calibrator if their
signal is first conditioned to mV units using an single-ended or differential charge
amplifier.
Model 422E3X Model EX682A40
Single-Ended Charge Amp Differential Charge Amp
First, make sure ICP® Input Mode is selected. When the charge-mode
accelerometer is connected to a charge amp and then connected to “Test Sensor
In”, the 699A07 will display the calibrated system sensitivity (i.e. the sensitivity of the
sensor-amp combination). For example, if a 10 pC/g accelerometer is used with a
10 mV/pC charge amplifier, the nominal system sensitivity is 100 mV/g:
10 pC/g * 10 mV/pC = 100 mV/g
Users can create calibration certificates in pC/g units in the Report Generation
Workbook. Simply check the box at top left of the FRData tab in the Report
Generation Workbook to create calibration certificate in pC/g. Next, enter the
sensitivity of the charge amplifier in mV/pC in cell D8. Finally, import the calibration
data and view certificate as describes in the “Report Generation Workbook” section.
The resulting calibration certificate will be in pC/g, removing the effect of the in-line
charge amplifier.
Non-Contact Displacement Sensor Calibration
Non-contact displacement sensors, also known as proximity probes, eddy current
probes or displacement probes, can be checked for accuracy, linearity, and
frequency response. Proximity probe systems require the use of the optional
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600A22 (or 600A23) proximity probe adaptor kit, shown on the next page. The
following sections detail the procedure for performing linearity and frequency
response checks on a non-contact displacement sensor.
Non-Contact Displacement Sensor Test Setup
Note: The calculations in these instructions are based on a 200 mV/mil eddy current
proximity probe to provide an example based on nominal sensitivity. In most cases,
the proper proximity probe, extension cable, and driver (Proximitor®) must be
matched in order to obtain the expected output from this type of transducer.
[Proximitor® is a registered trademark of Bently Nevada Corporation.]
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1. Remove the (2) 10-32 pan head screws on the user panel of the portable
vibration calibrator (white arrows in picture below).
2. Install the AISI 4140 steel target into the shaker on the mounting platform.
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3. Install the non-contact displacement sensor in the microarm after stringing the
probe through the probe bar as shown in the picture below. Please note: An 8 mm
probe tip non-contact displacement sensor with 3/8-24 threaded case will mount
directly while a 5 probe tip mm non-contact displacement sensor with a ¼-28
threaded case requires the supplied bushing. Slide the non-contact displacement
sensor into the microarm. Tighten the socket head cap screw inside the microarm to
lightly squeeze the probe to ensure the probe is held securely.
4. Carefully lay out the assembly to resolve the required spacer or spacers to hold
the non-contact displacement sensor the proper distance from the target as shown
below. The non-contact displacement sensor will need to be held so that the sensor
will contact the target and must be capable of traveling 100 mils before the
micrometer runs out of travel. (for 200 mV/mil probe with 10-90 mils range). Noncontact displacement sensors come in various lengths so adjustability has been
designed into the assembly. Attach selected spacer or spacers using setscrews
provided, leaving threaded holes exposed.
Set Screw
Socket Head
Cap Screw
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5. Finalize the assembly by attaching probe bar, microarm, non-contact
displacement sensor, and micrometer on top of the spacers and secure with
provided panel screws.
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Proximity Probe Dynamic Linearity Calibration & Confirmation of
Vibration Alarms
IMPORTANT: The 699A07 powers up at the unit’s previous frequency and
amplitude settings. Prior to using the 699A07 for calibrating non-contact
displacement sensors, set amplitude to a low level to avoid striking the tip of the
probe with the target due to previously set large displacements.
1. Mount the proximity probe to the shaker facing the target by following instructions
in the previous section.
2. Gap the probe. With the non-contact displacement sensor powered up and the
output from the probe driver wired to a voltmeter set to DC voltage, adjust the
micrometer so the gap between the probe tip and the steel target is around 50 mils.
If you are using a 200 mV/mil proximity probe the voltmeter should read between -8
and -11 Volts DC, typically ~-9 Volts DC is 50 mils. Fifty mils is the typical
recommended gap setting for non-contact displacement sensors, ensuring the
sensor is in the center of its dynamic range. If the probe is 50 mils from target (or
rotating equipment before start-up) it can accurately measure up to 80 mils peak-topeak vibration. Consult your non-contact displacement sensor’s user manual for
additional information.
3. Power-on the shaker by pressing and holding the FREQUENCY dial.
4. Test the probe at running speed of the machinery it protects. Primary
vibration issues occur at running speed. Thus ensuring the proximity probe is
accurate at running speed is the most practical and confidence-building test. Test
speed can be set in Hz or CPM (see Section 2: Operation Guide for instructions) by
turning the FREQUENCY dial.
5. Confirm vibration alarms. Press the AMPLITUDE dial to cycle through vibration
scales until either mils p-p or µm p-p is displayed. Choose the appropriate scale for
your vibration monitoring system. Turn the AMPLITUDE dial, adjusting vibration to
the lowest vibration alarm threshold (sometimes called “alert”). Confirm with control
room that displayed amplitude on model 699A07 shaker equals value read on
monitoring system. Confirm vibration alarm is triggered, making sure to wait long
enough for programmed time delays to expire. Repeat the process for each
vibration alarm threshold.
6. Create a linearity test report for auditing purposes. Connect the output of the
probe driver to the TEST SENSOR INPUT BNC. Make sure model 699A07 is in
“voltage mode” by pressing and holding the AMPLITUDE dial or using the TEST
SETTINGS MENU. Sensitivity of the probe, extension cable and driver is at top left
of the LCD screen. Keep the same speed throughout this test, ideally running speed
of the machine on which the probe is installed. Use the AMPLITUDE dial to adjust
vibration displacement level. The typical test is from 1.0 to 10.0 mils p-p, recording
sensitivity every 1.0 mils (1.0, 2.0, 3.0 mils pk−pk, etc.). The test can be modified to
suit the needs of the application. To save each test point to memory rotate the FILE
dial until SAVE POINT appears at top right, then press the FILE dial to save data to
memory. When complete, rotate FILE dial to display END RECORD then press
FILE dial.
Note: if “Bias Fault” appears at top left on display the 699A07 is supplying ICP
power to the proximity probe. This will not damage the probe. But ICP power must
be turned off by pressing and holding the AMPLITUDE dial.
7. Export the test(s) to the supplied USB drive. For detailed instructions see
Section 2: Operation Guide
8. Create, save and print test report using Microsoft® Excel®. Connect the USB
to any computer with Excel®. Open the REPORT GENERATION WORKBOOK.
Click on the LINData tab. Press Import Data from File then choose the desired test
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data from the appropriate folder on the USB drive. Each time tests are exported
from 699A07 to USB they are saved within a folder representing the date and time
they were exported. Once data is imported press View Certificate. Enter any
desired notes or comments into the report, save and/or print.
Note: Macros must be enabled for buttons to respond when clicked in Report
Generation Workbook.
Troubleshooting the proximity probe system
If the vibration alarms did not activate at desired vibration thresholds the most
common reason when using proximity probes is incorrect cabling. Advice on
troubleshooting follows below. Be sure to read the previous section on confirming
vibration alarms by dynamic linearity testing.
• Connect the output of the probe driver to TEST SENSOR INPUT BNC on model
699A07 calibrator while simulating vibration at the lowest alarm threshold. For a 5 or
8mm probe, is the sensitivity within 5% of 200 mV/mil? I.e. within 190-210 mV/mil or
7.08–8.66 mV/µm? The monitoring system likely is scaled for 200 mV/mil or 7.87
mV/µm. If alarms did not activate it could be incorrect input sensitivity.
• Incorrect sensitivity is most often caused by incorrect cabling. Check the required
length for the probe driver. Then check the length of the extension cable and integral
cable on the probe itself. The probe cable length plus extension cable length should
equal the required length for the probe driver.
• Make sure the probe was gapped properly prior to the test. See previous section.
• Ensure the proximity probe target is attached to the top of the shaker.
• Does the probe driver have a MOD? If so the probe driver may have been made for
a different target material. The standard API 670 recommended target for testing
proximity probes is 4140 steel. But custom proximity probe systems, calibrated to
alternate materials, require a custom calibration target. Contact IMI Sensors for
custom target materials.
Creating a Proximity Probe Curve in Mils
Note: Reference steps 1-5 of “Non-Contact Displacement Sensor Test Setup”
section for setup instructions. This test assumes a 5 or 8mm proximity probe with
200 mV/mil output.
1. Power on the probe driver and connect a digital voltmeter to the output. Set the
voltmeter to measure DC voltage.
2. Open the Report Generation Workbook and select the LINData tab. Choose
Displacement for cell H12, Volts for cell I13 and mil p-p for cell H13.
3. Positon the probe over the target using the micrometer such that -1.0 VDC reads on the
voltmeter. Enter 10 into cell H14 next to “Starting Point” and enter -1.0 into cell I14 as a
place holder. This value will be changed later.
4. Rotate the micrometer so that the proximity probe moves 10 mils further from the target.
Each dash on the micrometer is one mil. Enter 20 mils into cell H15 and enter the DC
voltage value read on the voltmeter into cell I15.
a. Pay attention to micrometer looseness. All micrometers have looseness when
changing directions where turning the micrometer does not move the probe.
The looseness can be felt in your fingers as resistance is less than normal.
5. Repeat step 4 until the probe is 90 mils from the target. Each time the micrometer is
turned 10 mils the probe moves 10 mils further from the target. Record the DC voltage
at 10, 20, 30, 40, 50, 60, 70, 80 and 90 mils using column I in the workbook.
6. Once the 90 mils data point is recorded use the micrometer to move the probe 80 mils
closer to the target. In this step the 10 mils DC voltage will be re-confirmed. Recall that -
1.0 VDC was entered as a placeholder. Move the probe 80 mils closer so that it is 10
mils from target and re-write the DC voltage in cell I14.
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a. One full rotation of the micrometer is 25 mils. To accomplish step 6 quickly,
complete three full rotations of the micrometer and then move 5 more mils.
7. All data is now entered, press View Certificate to view, edit, save and print the report.
Testing 4-20 mA Vibration Transmitters
Loop-powered 4-20 mA vibration transmitters give an overall vibration level reading
and interface directly with the plant PLC, DCS or SCADA system just as process
instrumentation does. The most important function of these sensors and the control
system to which they are connected is the vibration alarms:
1. Remove the vibration transmitter from the machine and mount to the shaker table.
Users may need a mounting adaptor such as ¼” NPT available from IMI Sensors.
The shaker table should be brought to the sensor.
2. Leave all connections as is this will test the sensor, cable, system, display and
alarms.
3. Set the frequency to the running speed of the machine. It may be easier to use the
CPM scale than Hz for this test (press frequency dial and enter sub-menu to
change)
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4. Set the amplitude to the first vibration alert or just greater than first alert, call the
control room to confirm alert.
5. Set the amplitude to the second (severe) vibration alarm or just greater, call the
control room to confirm alarm.
6. Confirm with control room displayed vibration matches that shown on the 699A07.
7. Continue testing at any additional vibration alarm points.
Creating a test report for 4-20 mA vibration transmitters
For safety or insurance audits it may be helpful to have test reports for 4-20 mA
vibration transmitters. The 699A07 cannot read DC voltage or current, thus for this
test a calibrated multi-meter (capable of measuring current) is required. Also a USB
to 24 VDC power supply can be optionally used to power the sensor using the
USB connection on the 699A07. Contact IMI for ordering information. The
following instructions include using a USB to 24 VDC power supply. If it will not
be used skip to step 5.
1. Mount the 4-20 mA vibration transmitter to the shaker table. Users may need a mounting
adaptor such as ¼” NPT available from IMI Sensors.
2. Make sure the 699A07 is turned off, connect the sensor’s leads to appropriate positions
on the terminal block: +24 VDC, SIG IN and GND (ground). For example, for an IMI
Sensors Model 640B01 and Model052BRXXXAD cable connect the RED wire to +24
VDC, the BLUE wire to SIG IN and the cable’s shield to GND.
3. Connect the DAQ BNC output to the calibrated multi-meter and set the meter to measure
DC current. A BNC jack to banana plug is the simplest method of connection. BNC jack
to banana plugs are commercially available from any electrical hardware store (IMI uses
Pomona model 1269 BNC jack to banana).
4. Plug the power supply unto the USB port on Model 699A07.
5. Turn on the shaker table.
6. Open the Report Generation Workbook on a computer and click the LINData tab.
7. Under the “Static Proximity Probe/4-20 mA Vibration Sensor Calibration Data Table” at
right, click cell H12 and choose appropriate scale (acceleration, velocity or
displacement). For aforementioned Model 640B01 “velocity” would be chosen.
8. In cell H13, select the appropriate sub-scale (for velocity: ips pk, ips RMS, mm/sec pk or
mm/sec RMS). For IMI Model 640B01 “ips pk” would be chosen.
9. In cell I13, choose “mA” as the output.
10. The starting point should be 0.0, record this in cell H14. Read the mA value on the multimeter and record in cell I14.
11. For first amplitude test point, read vibration value from display of 699A07, record in
column H then read mA value from multi-meter and record in column I. Repeat until test
is complete.
12. When all data has been entered press “view certificate” and print or save. Optionally
enter additional test data like model number, serial number, location and notes.
A good test is to take five test points (including zero), evenly spaced through the
range. Be sure to confirm operation at vibration alarm points. Example test data for
IMI Sensors Model 640B01:
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Maintenance
Recalibration and certification is recommended on an annual basis. Service of
internal parts should only be performed by factory personnel. If the unit is removed
from the case, the NIST calibration is void. Recertification can only performed after
re-assembly.
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699A07
PORTABLE VIBRATION CALIBRATOR
Revision: A
ECN #: 48972
Performanc
e
ENGLISH S
I
Maximum Load 800 gm 800 gm
[4]
Frequency Range(operating, 100 gram payload) 5 to 10,000 Hz 300 to 600,000 cpm
Accuracy(10 Hz to 10 khz) ± 3 % ± 3 %
Accuracy(5 Hz to 10 Hz) ± 5 % ± 5 %
Accuracy(Velocity (10 Hz to 1000 Hz)) ± 3 % ± 3 %
Accuracy(Displacement (30 Hz to 150 Hz)) ± 3 % ± 3 %
Amplitude Linearity(100 gram payload, 100 Hz) 1 % 1 %
[5]
Distortion
(
100 gram payload, 30 Hz to 2 kHz
)
<5 % <5 %
[6]
Maximum Am
p
litude(Acc 100 Hz no payload
)
20 g
pk
196 m/s^2
pk
Maximum Amplitude(Vel 100 Hz no payload) 15 in/sec p
k
380 mm/s p
k
Maximum Amplitude(Displ 100 Hz no payload) 50 mils pk-pk 1.27 mm pk-pk
Control Interfac
e
Test Sensor In Voltage or ICP® Voltage or ICP®
[1]
Bias Fault Indication (ICP® Sensors) Yes Yes
External Source In (Max) 1V AC RMS 1V AC RMS
Monitor Reference Out
10 mV/g (nominal),
Buffered internal
reference output
10 mV/g (nominal),
Buffered internal
reference output
Display Units(Acceleration) g pk & RMS m/s² pk & RMS
Dis
play
Units(Velocit
y)
in/sec pk & RMS mm/sec pk & RMS
Displa
y
Units(Displacement
)
mils pk-p
k
um pk-p
k
Display Units(Frequency) Hz CP
M
Test Sensor Sensitivity mV/EU mV/EU
[2]
Environmenta
l
Temperature Range(Operating) 32 to 122 °F 0 to 50 °C
Electrica
l
Power Required(Internal Battery (sealed solid gel lead acid)) 12 VDC, 4 amp hours 12 VDC, 4 amp hours
Power Required(AC Power (for recharging battery)) 110-240 V, 50-60 Hz 110-240 V, 50-60 Hz
Battery Life(100 gram payload, 100 Hz 1g pk) 18 hours 18 hours
[3]
Battery Life(100 gram payload, 100 Hz 10g pk) 1 hour 1 hour
[3]
Physica
l
Storage
Up to 500 calibration
records
Up to 500 calibration
records
Points Per Record
30 calibration data
points
30 calibration data
points
Sensor Information
Model number, serial
number, Mounting
orientation (x, y, z), user
notes
Model number, serial
number, Mounting
orientation (x, y, z), user
notes
Export File Format
CSV (comma-separated
values)
CSV (comma-separated
values)
USB Port
Export to flash drive
(FAT 32)
Export to flash drive
(FAT 32)
Size (Depth x Height x Width) 10 in x 8.5 in x 12 in
28 cm x 22 mm x 30.5
cm
Weight(with batteries) 18 lb 8.2 k
g
Mounting Thread 1/4-28 Female No Metric Equivalent
All specifications are at room temperature unless otherwise specified.
In the interest of constant product improvement, we reserve the right to change specifications without notice.
ICP
®
is a registered trademark of PCB Group, Inc.
OPTIONAL VERSIONS
Optional versions have identical specifications and accessories as listed for the standard model
except where noted below. More than one option may be used.
NOTES
:
[1] 5 mA constant current excitation to ICP® (IEPE) sensor.
[2]
EU can be
[g], [
m/s²], [mm/s], [in/s], [mils] or [um
]
[3] As shipped from factory in new condition
[4]Op
erating range reduced at higher payloads. Reference manual for full details
.
[5] Up to 10g pk
[6] Up to 5g p
k
SUPPLIED ACCESSORIES:
Model 080A118 Mounting pad 1.0" diameter 1/4-28 tapped hole (for stud mounting
accelerometers) (1)
Model 081A08 Mounting Stud (10-32 to 1/4-28) (1)
Model 081B20 Mounting Stud, with shoulder (1/4-28 to 1/4-28) (1)
Model 600A25 Power Supply and Plug Adaptors (1)
Model 600A34 Mounting Wrench (1)
Model ICS-41 NIST traceable Certificate of Calibration, Metric & English Units (1)
Model USB DRIVE Flash Drive with Calibration Re
p
ort Generation Worksheet (1
)
OPTIONAL ACCESSORIES:
Model 600A31 Calibration route semi-automation & pass/fail notification (1)
Model 600A33 Modulated current sensors power supply and measurement: Test Sensor
Sensitivity units of readout are mV/EU, mA/EU or uA/EU, Test Sensor Input/output Voltage, ICP
or Modulated current. Includes USB to 24 VDC power supply (600A39). (1)
Entered: LK Engineer: NJF Sales: M
C
Approved: NJF Spec Number:
Date: 12/18/2018 Date: 12/18/2018 Date: 12/18/2018Date: 12/18/2018
66697
3425 Walden Avenue, Depew, NY 14043
Phone: 800-959-4464
Fax: 716-684-3823
E-Mail: imi@pcb.com
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