Investigate and Optimize Your Structures with Kistler's Modal Portfolio

Similar documents
Kistler LabAmp. Electronics & Software. Charge Amplifier and Data Acquisition Unit for Dynamic Measurements. Type 5165A...

Kistler LabAmp for DynoWare

Test & Measurement acceleration, and dynamic force. Measuring equipment for demanding T&M applications

Test & Measurement Acceleration, Acoustic Emission and Dynamic Force. Measuring Equipment for Demanding T&M Applications

Acceleration. Providing Quick, Accurate and Reliable Measurements

26 Endevco Isotron accelerometers

Accelerometers. Providing quick, accurate and reliable motion data

Acceleration. Providing Quick, Accurate and Reliable Measurements

vibrati vibration solutions by sensor type Measurement Specialties brings more than twenty years of

PRODUCT DATA. Piezoelectric Accelerometer Miniature Triaxial DeltaTron Accelerometers Types 4524, 4524 B

Accelerometers. Providing quick, accurate and reliable motion data

Sensors for Research & Development and Machinery Health Monitoring

Sensors for Research & Development and Machinery Health Monitoring

Dytran Instruments, Inc. 1

NEW FROM PCB. Sensors & Instrumentation for Measuring Vibration, Sound, Torque, Pressure, Force, and Strain

Piezoelectric multilayer triaxial accelerometer

NEW FROM PCB. Sensors & Instrumentation for Measuring Vibration, Sound, Torque, Pressure, Force, and Strain

Aero Support Ltd, 70 Weydon Hill Road, Farnham, Surrey, GU9 8NY, U.K.

AN5E Application Note

Anthony Chu. Basic Accelerometer types There are two classes of accelerometer in general: AC-response DC-response

Accelerometer Sensors

Introduction To Impulse Hammers

CHOOSING THE RIGHT TYPE OF ACCELEROMETER

10 mv/g, 1 to 7k Hz top connector side connector Ceramic shear. Ceramic shear 352C34. Ceramic shear 353B34. Quartz shear 356A16

Sensors for Vibration, Acceleration, and Shock Measurement. Product Catalog

WHAT S NEW AT DYTRAN NEW PRO DUC TS PIEZOELECTRIC AND DC SENSORS FOR THE TEST PROFESSIONAL

NEW FROM PCB. Sensors & Instrumentation for Measuring Vibration, Sound, Torque, Pressure, Force, and Strain

Introduction to LIVM Accelerometers

Technical Information

Acceleration Sensor AS - 022

Good Modal Practices

Vehicle & Component Durability Sensors Accelerometers, Load Cells, Force Sensors, and Signal Conditioners

INDUSTRIAL VIBRATION SENSOR SELECTION MADE EASY

3.0 Apparatus. 3.1 Excitation System

GUIDE TO DYNAMIC FORCE SENSORS

ASC IMU 7.X.Y. Inertial Measurement Unit (IMU) Description.

Developer Techniques Sessions

OPERATING GUIDE MODEL 3093M32 MINIATURE HIGH SENSITIVITY TRIAXIAL LIVM ACCELEROMETER WITH SINGLE 4-PIN CONNECTOR INTERNALLY CASE GROUND ISOLATED

Model 626B01. Low Frequency Industrial ICP Accelerometer. Installation and Operating Manual

Model CAACS Commercial Automated Accelerometer Calibration System

A New Solution for Shock and Vibration Calibration of Accelerometers

Model CAACS Commercial Automated Accelerometer Calibration System

Vibration Transducer Calibration System

Embedded Surface Mount Triaxial Accelerometer

Mechanically Isolated & Electrically Filtered ICP pyroshock Accelerometers. Bob Metz October 2015

High Sensitivity Triaxial CCLD Accelerometer Type 4506-B-003

Model 629A31. Precision Triaxial Industrial ICP Accelerometer. Installation and Operating Manual

PRODUCT DATA. Piezoelectric Accelerometer Miniature Triaxial Charge Accelerometers Types 4326-A and 4326-A-001

Analysis of Electrical Noise in Piezoelectric Sensors

Vibration Fundamentals Training System

Customized Sensors. OEM Custom-designed Sensors...from the leader in the measurement of mechanical parameters

Development of a Package for a Triaxial High-G Accelerometer Optimized for High Signal Fidelity

Principles of Vibration Measurement and Analysis. Dr. Colin Novak, P.Eng July 29, 2015

OBSOLETE. High Accuracy 1 g to 5 g Single Axis imems Accelerometer with Analog Input ADXL105*

High Accuracy 1 g to 5 g Single Axis imems Accelerometer with Analog Input ADXL105*

Introduction to Charge Mode Accelerometers

Piezoelectric accelerometer design. Piezoelectric transducers Quartz and piezoceramics Mechanical design Charge amplification Design trade-offs

Test & Measurement Sensors & Instrumentation

Table of Contents. Compendium SPEKTRA. Calibration Systems CS18. Vibration and Shock Exciters. Vibration Control Systems. Services

MEAS Silicon MEMS Piezoresistive Accelerometer and its Benefits

Kistler View2015. Smart Measuring Solutions for Self-Regulated Production Processes. Get Better. With Kistler.

Accelerometer ACH-01. Piezoelectric Accelerometer Wide Bandwidth; AC Coupled Ultra Low Power High G Ranges

Product Catalog. Sensors and Solutions for Cutting Force Measurement.

EFFECTS OF ACCELEROMETER MOUNTING METHODS ON QUALITY OF MEASURED FRF S

Product Description. SIGnal Workbench. Programmable Signal Conditioning System

IPC-TM-650 TEST METHODS MANUAL

5. Transducers Definition and General Concept of Transducer Classification of Transducers

A Custom Vibration Test Fixture Using a Subwoofer

Model 356B40. Sell 356B41. Installation and Operating Manual

Model 600A13. Very High Temperature ICP Accelerometer Kit. Installation and Operating Manual

A high temperature 100 mv/g triaxial accelerometer. Endevco technical paper 329

(i) Sine sweep (ii) Sine beat (iii) Time history (iv) Continuous sine

Tactical grade MEMS accelerometer

Kistler portable triaxial Force Plate


MX1615. Data sheet. Bridge/strain gauge amplifier

1510A PRECISION SIGNAL SIMULATOR

Paper Title: FIELD MONITORING OF FATIGUE CRACK ON HIGHWAY STEEL I- GIRDER BRIDGE

MIL-STD-202G SHOCK (SPECIFIED PULSE)

Universally Applicable for Piezoelectric Measuring Technology. Technical Data. Charge Input. Instant value. Extreme values ors statistic measurements

21 st Transducer Workshop Vehicular Instrumentation/Transducer Committee

Universally Applicable for Piezoelectric Measuring Technology. Technical Data. Charge Input. Extreme values ors statistic measurements

SCOPE OF ACCREDITATION TO ISO/IEC 17025:2005 & ANSI/NCSL Z

PRODUCT DATA. Piezoelectric Charge Accelerometer Types 4326-A and 4326-A-001. Uses and Features

Charge Meter. Electronics & Software. Universally Applicable for Piezoelectric Measuring Technology. Type 5015A...

GENERAL PURPOSE PIEZOELECTRIC LOAD CELL

DiMod 307 and SAE J211-1 Compliance. Dipl.-Ing. (FH) Jochen Schulz, Service Engineer, Kistler Automotive GmbH, Heidelberg, Germany

430. The Research System for Vibration Analysis in Domestic Installation Pipes

PRODUCT DATA. DC Response Accelerometers Types 4570, 4571, 4572, 4573, 4574, and 4575

Model 3713D1FE200G. Triaxial DC Accelerometer. Installation and Operating Manual

Capacitive Versus Thermal MEMS for High-Vibration Applications James Fennelly

MX1601B. Data Sheet. Universal amplifier. Special features. Block diagram Digital platform. B en

Models Z7, Z11, Z602WA and Z820WA Impedance head operating guide

LOW COST SDI 2210, 2260 & 2266 HIGH PERFORMANCE SDI 2220 & 2276

ni.com Sensor Measurement Fundamentals Series

Load Cell Accessories and Services

CE620. Piezoelectric accelerometer with integrated electronics. IECEx

THE USE OF BU SERIES ACCELEROMETERS

Control and Signal Processing in a Structural Laboratory

SE 120. Piezoresistive accelerometer

Transcription:

Investigate and Optimize Your Structures with Kistler's Modal Portfolio Source: NASA Modal Analysis Accelerometers, Impact Hammers, Impedance Heads, Force Sensors and Electronics for Your Modal Analysis and Structural Studies

Kistler Product Line: Acceleration Kistler Measures Acceleration. Sensor Solutions for Your Specific Application Needs Accelerometers are used in every avenue of the dynamic test environment and Kistler has developed families of products covering this expansive range of applications. From ultra-low motions encountered in wafer fabrication technology to shock spectra reconstruction experienced in pyrotechnic separation event studies and everywhere in between, an optimal sensor solution is available. Static events are captured with the K-Beam static and low frequency product offerings. Very high frequency activity is routinely measured using any of several miniature piezoelectric single-axis or triaxial types. Many sensing technologies including piezoceramic, quartz and variable capacitance approaches have been extensively explored and are employed as needed to accommodate the demands of the specific application. Such applications include structural testing, aerospace and military, automotive/transportation, civil engineering or environmental stress screening. Additional Information Easy setup of complex, high channel testing TEDS option available according to IEEE 1451.4 standard Easy mounting of sensors due to unique 'clip' techniques Accredited to ISO/IEC 17025 for pressure, force, acceleration and charge 2

Kistler Modal Analysis Instrumentation. Expanding Your Capabilities Reliable data reflecting the structural response is imperative to an accurate analysis. Structural dynamics studies using modal analysis present unique requirements for accelerometers and force sensors. Kistler's comprehensive product line optimizes the measurement capability of your study. Complete specifications are listed in data sheets for each product at. Triaxial modal accelerometers, such as PiezoBeam Type 8688A and Ceramic Shear Type 8762A, offer lightweight solutions ideal for applications where mass loading must be kept to a minimum. Impedance head Type 8770A provides coincident force and acceleration data. Load cell Type 9712B precisely measures single-axis force input. The impulse hammer product line Type 972xA uses the same Piezotron IEPE low impedance, voltage mode as many of the accelerometers above to provide accurate measurement of input excitation. These hammers are used with accelerometers to perform structural analysis with the impact method. What is Modal Analysis Used For? Refinement of Finite Element (FE)- Model: prototype testing, inclusion of damping Trouble-shooting: reduce excessive vibration levels, ensure that resonances are away from excitation frequencies Simulation of 'what if?' scenarios: determination of forces, response to complex excitation, structural dynamic modification Structural assembly analysis: to predict dynamic behavior of assembled sub-components Most Kistler Modal Analysis dedicated accelerometers are available with a TEDS option (Transducer Electronic Data Sheets). These sensors generate data sheet information that eases the setup of complex, high channel testing. Kistler has been a guiding force with the IEEE 1451.4 standard for this style of accelerometer. PiezoSmart is Kistler s trade name for TEDS sensors. Kistler is accredited to ISO/IEC 17025 for pressure, force, acceleration and charge. For calibration services, please contact your local Kistler representative. Operational Modal Analysis on a full car body 3

Modal accelerometers mounted to Space Shuttle body flap Kistler PiezoBeam Sensors. Kistler PiezoBeam Types 8640A..., 8688A... Kistler pioneered this ceramic, beam-type, bimorph sensing element that also serves as the seismic mass. This construction provides a highly favorable mass to sensitivity ratio, unachievable with other types of piezoelectric accelerometers. PiezoBeam triaxial modal accelerometers Type 8688A and PiezoBeam single-axis modal accelerometers Type 8640A, offer inexpensive solutions for SIMO or MIMO structural testing. Such testing includes pre-production investigations, which require a large number of high performing accelerometers at low cost. The Kistler PiezoBeam family allows for reduced mass loading on thinwalled structures important to multi-channel modal applications. Advantages of Kistler PiezoBeam Sensors Unique ceramic beam sensing element Easy clip mounting Reduce mass loading Ultra-low noise down to 140 μg Inexpensive TEDS option available 4

Unique Ceramic Beam Sensing Element The PiezoBeam accelerometer incorporates a unique sensing element consisting of a ceramic beam supported by a center post that, when bending occurs as a result of being subjected to vibration, yields an electrical charge. The charge signal is converted by the internal low noise charge amplifier to a proportional high level voltage signal at an output impedance of less than 500 ohms. Patented methods are used to thermally compensate the sensing element. The sensing element design provides outstanding amplitude and phase response over a wide frequency range. A clever welded titanium housing design allow for those sensors to be ground isolated when mounted using different dedicated mounting accessories from an adhesive mounting clip to a magnetic mounting base. TEDS option Last but not least, Types 8688A and 8640A provide an optional IEEE 1451.4 Transducer Electronic Data Sheet (TEDS). TEDS provides automatic transfer of sensor parameters to TEDS capable signal conditioning minimizing transcription errors and record keeping tasks. Kistler PiezoBeam single-axis sensor Type 8640A... The PiezoBeam accelerometer should be used under constant thermal operational conditions, such as closed laboratories. Accelerometers with shear design are common under changing temperature conditions. PiezoBeam Modal Accelerometer Type 8640A... Mounted on Type 800M156 Ground Isolated Clip Mounted on Type 800M158 Adhesive Mounting Stud Mounted on Type 800M160 Magnetic Mounting Base Kistler single-axis PiezoBeam design concept Typical Mounting Configurations At a Glance The ground isolated mounting clip, adhesive mounting stud or magnetic mounting base are used to easily and quickly mount and orient the PiezoBeam sensors. Please refer to page 10 for more details. 5

Kistler Force Impact Hammer Series. db 0 10 20 30 Tip 9912 Tip 9910 Tip 9908 Tip 9906 Tip 9904A Tip 9902A 40 50 60 70 80 100 1 000 10 000 Hz Frequency response of the hammer Type 9722A... according to the impact tip used Kistler Impact Hammer Series Type 972xA The dynamic response of a mechanical structure, while either in a development phase or an actual use environment, can be readily determined by impulse force testing. Dynamic quartz sensor elements contained within Kistler Type 972xA instrumented hammers are used to deliver a measurable force impulse (amplitude and frequency content) to excite the mechanical structure under test. Using an FFT analyzer, the transfer function of the structure can be determined from a force pulse generated by the impact of a hammer and the response signal measured with an accelerometer. An impulse force test method yields extensive information about the frequency and attenuation behavior of the system under test. The stainless steel head of an impulse force hammer, equipped with the quartz, low impedance force sensor, accepts impact tips varying in hardness. As mentioned earlier, accelerometers operating in a voltage mode and featuring insensitivity to base strain, thermal transients and transverse motion are available to measure the response of the test specimens ranging from thin-walled structures to steel bridge members. Kistler Impact Force Hammer Features at a Glance Solutions from 500... 20,000 N [100... 4,500 lbf] Low impedance, voltage mode Quartz-sensing element guarantees long-term stability Accessories for various applications (various tips for pulse duration variation, extended mass for amplitude variations) Sensor cable integrated to hammer handle (BNC) Conforming to ä Hammer Type 9722A... Please refer to page 11 for more details. 6

Hammer Test Method: Easy Measuring Chain Integrity Investigations In practice, a true Delta Function pulse does not exist since its theoretical duration is zero. In general, as the impact duration increases, the range of excited frequencies decreases. Impact tips mounted to a force impulse hammer consist of different materials (steel, plastic, various density rubber tips), each yielding different excitation durations and different excitation frequency ranges. Depending upon the fre quencies of interest of the structure under test, the appropriate impact tip and an extender mass (to increase the force range) are mounted to the hammer. Advantages of a Hammer Test Method Fast and straightforward method to determine the frequency response function(s) of a structure Simple and reliable method for checking sensitivity at low frequencies Detection of changes in structure (e.g. cracks, other structural changes) is possible Typical frequency analysis of a multi-component force plate using the hammer test method Kistler K-Beam Accelerometers. Kistler MEMS Variable Capacitance Sensors for Very Low Frequency Investigations Types 8315A(x) single-axis and 8395(x) triaxial K-Beam MEMS technologies provide temperature stability and low noise for accurate measurement of low frequency events from DC up to 1,000 Hz bandwidth. They are ideal for civil infrastructure and automotive modal testing among many other applications. Advantages of Kistler K-Beam Accelerometers Type 8315A(x) single-axis and Type 8395(x) triaxial K-Beam accelerometers 2... 200 g measuring range Unique long therm and thermal stability Various connectivity and signal output options (single, bipolar, differential) Possibility of driving long cable length without signal loss EMC protection; ground isolated Mounting accessories for adhesive, magnetic and screw configurations 7

Kistler LabAmp Type 5165A... Kistler LabAmp for Dynamic Measurements. Universal Amplifier and Data Acquisition Unit The Kistler LabAmp Type 5165A... is not only an outstanding amplifier for dynamic signals, but also a data acquisition device delivering the 24-bit digitized measurement values directly to the computer. Via Ethernet, the amplifier can be directly connected to a host computer or through a network. It is configured and operated by a web-interface and conveniently accessible by a standard web-browser. Advanced signal processing technology provides the Kistler LabAmp Type 5165A... with impressive flexibility. The frequencies of the high-pass, low-pass and notch filters can be directly entered as numerical values in Hz. The input signals can be flexibly routed to the analog outputs. The graphical user interface not only offers a simple and intuitive way to configure the device, but can also display different peak values or the root mean square of a signal. Kistler LabAmp Type 5165A... at a Glance Versatile inputs Charge, IEPE/Piezotron, Voltage modes Wide charge and frequency range Integrated data acquisition Analog outputs Low noise design Impressive filter capabilities Convenient user interface Communication via Ethernet 8

This universal laboratory amplifier can be used wherever dynamic signals of mechanical quantities are measured with piezoelectric sensors, Piezotron sensors (IEPE) or sensors with single-ended voltage output. Piezoelectric sensors produce an electric charge, which varies in direct proportion with the load acting on the sensor. The amplifier converts this charge directly into digital values or a proportional output voltage. Key Features of the Kistler LabAmp Type 5165A... 1 or 4 versatile, programmable inputs Frequency range 0.1 Hz... 100 khz Charge ranges from 100... 1,000,000 pc 24-bit data acquisition with up to 200 ksps per channel Fully flexible low-pass, high-pass and notch filter adjustment TEDS (IEEE 1541.4) for Piezotron / IEPE sensors 1 or 4 analog outputs with fully flexible 2-point scaling Configuration and control in a standard web-browser Virtual instrument driver for LabVIEW 2 Ethernet interfaces with included switch functionality Status indication per channel via LED Kistler LabAmp Type 5165A... user interface (partial view) Isolated Output Supply Power Power Supply Sensor 1 Sensor Analog Front End LP ADC LP Diff Amp DAC _ Out 1 + Sensor 2 Sensor Analog Front End LP ADC LP Diff Amp DAC _ Out 2 + Digital Signal Processing Sensor 3 Sensor Analog Front End LP ADC LP Diff Amp DAC _ Out 3 + Sensor 4 Sensor Analog Front End LP ADC LP Diff Amp DAC _ Out 4 + USB 10M Processor Ethernet 1 Ethernet 2 Case Block diagram of Kistler LabAmp Type 5165A... 9

Product Line Highlights. PiezoBeam Accelerometers Type 8640... Type 8688... Technical Data Type...A5......A10......A50......A5......A10......A50... Range [Sensitivity] g [mv/g] ±5 [1,000] ±10 [500] ±50 [100] ±5 [1,000] Frequency response Hz 0.5... 3,000 0.5... 3,000 0.5... 3,000 0.5... 3,000 0.5... 3,000 0.5... 5,000 Mass grams 3.5 3.5 3.5 6.7 6.7 6.5 Axes 1 1 1 3 3 3 ±10 [500] ±50 [100] Ceramic Shear Accelerometers Type 8763.. Technical Data Type...B050......B100......B250......B500......B1K0A......B2K0A... Range [Sensitivity] g [mv/g] ±50 [1,000] ±100 [50] ±250 [20] ±500 [10] ±1,000 [5] ±2,000 [2.5] Frequency response Hz 0.5... 7,000 0.5... 7,000 1... 10,000 1... 10,000 1... 10,000 1... 10,000 Mass grams 4.5 4.5 4.1 4.1 3.6 3.6 Axes 3 3 3 3 3 3 Type 8762... Type 8774.. Type 8776... Technical Data Type...A5......A10......A50......A50......A50M3......A50M6... Range [Sensitivity] g [mv/g] ±5 [1,000] ±10 [500] Frequency response Hz 0.5... 6,000 0.5... 6,000 1... 10,000 1... 7,000 0.5... 4,000 1... 10,000 Mass grams 23 23 4 4 4 4 Axes 3 3 1 1 1 1 ±50 [100] ±50 [100] ±50 [100] ±50 [100] Miniature Accelerometers Type 8278... Type 8728... Type 8730... Type 8778... Technical Data Type...A500......A500......A500......A500... Range [Sensitivity] g [mv/g] ±500 [ 1.3 (pc/g)] ±500 [10] ±500 [10] ±500 [10] Frequency response Hz 1... 10,000 2... 10,000 2... 10,000 2... 10,000 Mass grams 0.7 1.6 1.9 0.4 Axes 1 1 1 1 10

IEPE Impedance Head Type 8770... Technical Data Type...A5......A50... Range vibration g ±5 ±50 Range sensitivity g 1,000 100 Force range N [lbf] ±22 [±5] ±222 [±50] Sensitivity mv/n [mv/lbf] 227 [1,000] 23 [100] IEPE Force Impact Hammers Type 9722... Type 9724... Type 9726... Type 9728... Technical Data Type...A500......A2000......A2000......A5000......A5000......A20000......A20000... Range N [lbf] 500 [100] 2,000 [450] 2,000 [450] 5,000 [1,100] 5,000 [1,100] 20,000 [4,400] 20,000 [4,400] Sensitivity mv/n [mv/lbf] 10 [50] 2 [10] 2 [10] 1 [5] 1 [5] 0.2 [1] 0.2 [1] Frequency response Hz 8,200 9,300 6,600 6,900 5,000 5,400 1,000 Axes 100 100 250 250 500 500 1,500 Charge Force Sensors Type 9212 Technical Data Type...A500... Range compression N [lbf] 22,000 [5,000] Range tension N {lbf] 2,200 [500] Sensitivity pc/n [pc/lbf] 11 [ 50] IEPE Force Sensors v Type 9712... Technical Data Type...B5......B50......B250......B500......B5000... Range compression N [lbf] 22 [5] 220 [50] 1,100 [250] 2,200 [500] 22,000 [5,000] Range tension N [lbf] 22 [5] 220 [50] 1,100 [250] 2,200 [500] 22,000 [5,000] Sensitivity pc/n [pc/lbf] 180 [800] 22 [100] 4.5 [20] 2.25 [10] 0.225 [1] 11

Measuring Chains. Impact Force Hammer Method Generating/Measuring Measuring Connecting Impulse Hammer Method Accelerometer Types 86xx, 87xx Impact Hammer Type 972x... Cable Types 1761B...,1756C..., 1784B... 8763B Output Signals Unit Under Test (UUT) Input: Impact Type 1601B Input Signals Shaker/Frequency Sweep Method Generating/Measuring Measuring Connecting Accelerometer Types 86xx, 87xx Shaker + Power Amplifier + Vibration Controller Shaker Method 8763B Customer supplied Input: Sweep Impedance Head Type 8770A... Cable Types 1761B...,1756C..., 1784B... Output Signals Unit Under Test (UUT) Cable Types 1761B...1756C..., 1784B... Accelerometers Type 86xx, Type 87xx Force Sensor Type 9712B... 12 Input Signals

5050B 8202A 8763B Conditioning/Acquiring Analyzing 8395A Signal Conditioner & Data Acquisition System 5165A 8315A Analysis software 5134B 8702B Ethernet or USB cable Ethernet Kabel 5146A15 1792A Data Accquisition Unit 1592A Customer supplied 1631C Customer supplied or Kistler LabAmp Type 5165A... Ethernet or USB cable 1756C Ethernet Kabel 1761B 1792A 1635C 1592A 5165A 1511 1631C 1756C 5050B 8202A 8763B 8395A Conditioning/Acquiring Analyzing 1761B 1635C Signal Conditioner & Data 5165A Acquisition System 8315A Analysis software 1511 5134B 8702B Ethernet or USB cable Ethernet Kabel 5146A15 1792A Data Accquisition Unit 1592A Customer supplied or Kistler LabAmp Type 5165A... 1631C Ethernet or USB cable Customer supplied 1756C Ethernet Kabel 1761B 1792A 1635C 1592A 1511 1631C 5165A 1756C 1761B 1635C 1511 13

Kistler Test & Measurement Product Family Kistler Your Partner for Innovation. Pressure, force, torque or acceleration: no matter which parameter demands your attention, Kistler has the right piezoelectric, pie zoresistive or strain gage sensor to meet virtually any requirement when it comes to analyzing, testing and validating mechanical systems. Outstanding features guarantee the results you need such as an exceptional breadth of measuring ranges from mbar to 10,000 bar, from mn to MN, from mnm to knm and from 200 μg to 100,000 g. These products also cover extensive temperature ranges, from cryogenic to 350 C [662 F]. Additional Information: Doc No. Description 900-380 Acceleration (catalog) 20.195 Basic Theory of the Hammer Test Method K20.302 IEEE P1451.4: Measurement with Smart Transducers 700-360e Aviation & Aerospace Force Limited Vibration Testing K-Beam, Piezo Beam, Piezotron and PiezoSmart are registered trademarks of Kistler Holding AG. 14

Service Worldwide. Sales Center Tech Center Production Center Kistler aims to offer all customers personal and professional support. Thanks to 30 Sales Centers around the globe and a large network of local distributors, we are close to our customers. Our experts are happy to offer help and advice. Expert advice and practical assistance for technical implementation is provided by our local Sales Centers or Sales Offices. For standardized calibration services, repairs to/with original parts, and product modifications, please contact your regional Tech Center. To help you make the most effective use of Kistler measurement technologies, Kistler offers tailormade training for all its products and systems either at your own premises or at one of our Sales Centers. Simply go to /applications and click on to the section you are interested in to find the contact details of the relevant sales representative. Contact us today we're here to help! 15

960-270e-07.15 2015, Kistler Group Kistler Group Eulachstrasse 22 8408 Winterthur Switzerland Tel. +41 52 224 11 11 Kistler Group includes the Kistler Holding AG and all its subsidiaries in Europe, Asia, Americas and Australia. Find your local contact on