This product is not currently available. For more information, including distributor inventory, please contact us.

View products below to see detailed pricing

This product is not currently available. For more information, including distributor inventory, please contact us.

Overview

The 64C accelerometer features a full bridge output configuration with a compensated temperature range from 0 to +50º C.  A slight amount of internal gas damping provides outstanding shock survivability and a flat amplitude and phase response up to 7kHz.The Model 64C is compliant with SAE J211 standards for anthropomorphic dummy instrumentation.

BENEFITS

  • DC Response Accelerometer 
  • Durable Low Noise Cable  
  • Small Package 
  • SAE J2570 Compliant 
  • Piezoresistive MEMS Sensor
  • ±50g to ±6,000g Ranges
  • 2-10 Vdc Excitation
  • -40 to +121ºC Temp Range
  • 1% Transverse Sensitivity Option
  • <±25 mV Zero Offset

FAQ

Frequently Asked Questions

What is an accelerometer?

Accelerometers measure the acceleration or vibration of a device or system. Physically, the accelerometer can be considered as nothing more than a weight on a spring which is connected to a frame. When the frame is moved, the mass will stay at rest until the spring, being stretched, can exert enough energy on the mass to make it move.

 

What is difference between piezo-electric (PE), piezo-resistive (PR) and variable capacitance (VC) accelerometers?
The word “piezo” comes from the Greek word “piezein” which means to press or squeeze. In this case, this refers to a basic characteristic of the material; when pressed or subjected to force, piezoelectric (PE) materials develop an electric charge and piezoresistive (PR) materials exhibit a change in resistance. Variable Capacitance (VC) sensors are essentially accelerometers that derive the acceleration measurement from a change in capacitance of a seismic mass moving between two parallel capacitor plates. These are the principles of operation of most accelerometers in use today.

 

What is the term damping referring to in piezo-resistive accelerometers?
By providing a narrow gap between two large moving plates, air is displaced, and this displacement slows the motion of the mass, thus damping the movement. If the gap is not well-controlled, the piezo-resistive accelerometer may be either grossly underdamped or overdamped. The problem with overdamping is the loss of useful bandwidth from the sensor. For underdamped devices, the accelerometer is more prone to signal distortion and breakage when excited near the peak response. For instance, a device with a Q of 10 will indicate 10 times gain at resonance and a 1g acceleration input will excite the seismic mass to 10g.

 

Features

Please review product documents or contact us for the latest agency approval information.  

Product Type Features

  • Sensor Package  Plug & Play

  • Accelerometer Type  MEMS DC

  • Vibration Sensor Product Type  MEMS Accelerometer

  • Output Type  DC

Configuration Features

  • Electrical Connection  Integral Cable

Electrical Characteristics

  • Full Scale Output Voltage (VDC) ±.1

  • Excitation Voltage (VDC) 10, 2 – 10

  • Zero Acceleration Output (mV) ±25

Signal Characteristics

  • Frequency Response (Hz) 0-1400 to 0-8000, 0-1900, 0-2000 to 0-5000, 0-2800, 0-600 to 0-10000, 0-8000

Body Features

  • Primary Product Material  Anodized Aluminum

  • Number of Sensing Axes  Uniaxial

  • Product Weight  1 g [ .035 oz ]

Mechanical Attachment

  • Mounting Type  Screw

Usage Conditions

  • Operating Temperature Range (°C) -40 – 121, -40 – 125

  • Operating Temperature Range (°F) -40 – 249.8, -40 – 257

Industry Standards

  • IP Rating  IP66

Other

  • Acceleration Range (±) (g) 100, 200, 500, 2000, 6000

  • Sensitivity (mV/g) .04, .1, .3, .6, 1.4

  • Nonlinearity (%FSO) ±1

Reference Number

  • TE Internal Number CAT-PPA0016

Related Materials

Datasheets & Catalog Pages