Acceleration, Pressure, & Force Sensors

The Type 8775A is an orientable single axis accelerometer that can measure acceleration in the direction shown by the markings shown on the head of the sensor. This accelerometer has a ±50 g measuring range.

These slim piecoelectric force transducers are designed for measuring dynamic and quasistatic tensile and compression forces.

Family Type 8743A are quartz shock accelerometers for measuring impulse, impact, and pyrotechnic shock.

Family Type 8742A are quartz shock accelerometers for measuring impulse, impact, and pyrotechnic shock.

At just 6 mm³ and 0.9 grams, these titanium-housed sensors deliver unmatched
compactness and ruggedness for confined or hard-to-reach installations. Their ultra-
flexible, permanently attached cable and 4-pin (¼-28 UNF) connector make setup effortless

A versatile accelerometer designed for structural, vibration, and durability testing, the
Kistler 8763B balances wide frequency response, high sensitivity, and rugged stainless-
steel construction.

Why Engineers Choose It: The Kistler 8763B outperforms typical Dytran and TE sensors
with tighter specs and longer-term stability—an industry standard every test bench should
stock.

Engineered for thermal extremes, the Kistler 8766A offers unmatched temperature
linearity and low noise over wide dynamic ranges. Ideal for aerospace, propulsion, and test-
cell environments.

Why Engineers Choose It: Piezostar crystal tech keeps signal integrity far beyond what
PCB and Endevco units sustain, making it the benchmark for demanding test labs.

This precision MEMS device provides true DC response for tilt, motion, and low-frequency
analysis while maintaining low noise and triaxial stability.

Why Engineers Choose It: When data fidelity and zero-frequency response matter, the
Kistler 8396A rivals high-end SDI and TE MEMS systems—but with better size and value.

A rugged, low-noise solution ideal for production monitoring, modal, and endurance testing.
Though single-axis, its precision machining and linearity make it a favorite for consistent
results.

Why Engineers Choose It: Simplicity meets reliability—better repeatability and signal
consistency than generic Dytran or TE counterparts.

These preloaded piezoelectric force links handle dynamic and quasistatic loads with
superior stiffness and thermal stability. Available as assemblies or core 90x7/8C elements.

Why Engineers Choose It: Kistler’s preloading precision delivers cleaner, more repeatable
measurements than PCB’s stack-type designs—perfect for industrial and R&D integration.

Include variants such as 9255C, 9366C-Set, 9253B, and 9109A covering a full range of test
requirements from single-component to multicomponent analysis.

Why Engineers Choose It: Consistent calibration and overload protection outperform
typical Dytran and TE force sensors—ideal for any advanced test bench.

Optimized for high-speed and high-pressure transients in pyrotechnic, automotive, and
battery-runaway testing.

Why Engineers Choose It: Engineers trust 6233B for ultra-fast response and survivability
where other sensors fail—unmatched repeatability in destructive test scenarios.

Kistler’s flagship model offers high accuracy and dynamic response with configurable
ranges and output options for flexible integration.

Why Engineers Choose It: Superior dynamic range and dual-range capability make the
Kistler 4503B the go-to alternative to TE and HBM torque transducers.

Its robust flange design and integrated signal conditioning enable fast setup and dependable
measurement for large dynos and drive testing.

Why Engineers Choose It: The most user-friendly torque flange in its class—lighter, easier
to mount, and more accurate than legacy TE or HBM systems.

Compact, reliable, and easy to install, the Kistler 4502A delivers lab-quality accuracy for
routine torque verification.

Why Engineers Choose It: The perfect balance of affordability and performance—outclasses
entry-level TE and PCB alternatives with true Kistler pedigree.

Robust piezoelectric (PE) designs deliver exceptional accuracy, high sensitivity, and long-
term stability in combustion, fluid-dynamic, and shock environments.

Why Engineers Choose It: When precision and durability count, these outperform aging
PCB and Endevco PE sensors—offering cleaner signals and broader bandwidth.

Robust piezoelectric (PE) designs deliver exceptional accuracy, high sensitivity, and long-
term stability in combustion, fluid-dynamic, and shock environments.

Why Engineers Choose It: When precision and durability count, these outperform aging
PCB and Endevco PE sensors—offering cleaner signals and broader bandwidth.

Digital triaxial MEMS accelerometer and temperature sensor
Acceleration range ±16 g, peak
Frequency response, ± 3 dB 2 Hz - 5 kHz
Temperature measurement range –20° to +70° C
Digital output only; communication Interface RS485 | Modbus RTU Protocol.
Excitation (Power) 6 - 24 VDC
Dimensions 35mm dia. x 26 mm h | Weight 75 grams | IP67 | Case material: (upper A6061 aluminum) / (lower: 303 stainless steel).
Connector 4-socket M8 (Mating connector: 4-pin M8)
Mounting adhesive mount via sensor flat base | screw mount adapter (optional) | magnet mount adapter (optional)
Operating temperature –20° to +70° C
Storage temperature –20° to +80° C
Operating humidity 5 - 95% RH

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