Motion Sensors - Accelerometers

Image Part Number Description / PDF Quantity Rfq
SCA3300-D01

SCA3300-D01

TOKO / Murata

ACCELEROMETER 1.5-6G SPI 12SMD

0

SCA620-CF8H1A-1

SCA620-CF8H1A-1

TOKO / Murata

ACCELEROMETER 1.7G ANALOG 8SMD

0

SCA1000-D01-6

SCA1000-D01-6

TOKO / Murata

ACCEL 1.7G ANALOG/SPI 12SMD

0

SCA3000-E04

SCA3000-E04

TOKO / Murata

ACCELEROMETER 6G SPI 18SMD

0

SCA100T-D07-6

SCA100T-D07-6

TOKO / Murata

ACCELEROMETER 12G SPI 12SMD

0

SCA3060-D01-1

SCA3060-D01-1

TOKO / Murata

ACCELEROMETER 2G SPI 12DFL

0

SCA3000-E05

SCA3000-E05

TOKO / Murata

ACCELEROMETER 18G SPI 18SMD

0

SCA1000-D01-1

SCA1000-D01-1

TOKO / Murata

ACCEL 1.7G ANALOG/SPI 12SMD

0

SCA10H-D01-112

SCA10H-D01-112

TOKO / Murata

ACCELEROMETER I2C/SPI MODULE

0

SCA1020-D08

SCA1020-D08

TOKO / Murata

ACCEL 1.7G ANALOG/SPI 12SMD

0

SCA720-D01-10

SCA720-D01-10

TOKO / Murata

ACCELEROMETER 2.11G ANALOG 12SMD

0

SCA1020-D06

SCA1020-D06

TOKO / Murata

ACCEL 1.7G ANALOG/SPI 12SMD

0

SCA1020-D13-6+S00422

SCA1020-D13-6+S00422

TOKO / Murata

ACCEL 1.7G ANALOG/SPI 12SMD

0

SCA610-C23A1G-1

SCA610-C23A1G-1

TOKO / Murata

ACCELEROMETER ANALOG 8SMD

0

SCA620-EG4V1B-1

SCA620-EG4V1B-1

TOKO / Murata

ACCELEROMETER ANALOG 8SMD

0

SCA1020-D22

SCA1020-D22

TOKO / Murata

ACCEL 1.7G ANALOG/SPI 12SMD

0

SCA1000-D10

SCA1000-D10

TOKO / Murata

ACCEL 1.7G ANALOG/SPI 12SMD

0

SCA1020-D14

SCA1020-D14

TOKO / Murata

ACCEL 1.7G ANALOG/SPI 12SMD

0

SCA1K-N1000070T-1+S00987

SCA1K-N1000070T-1+S00987

TOKO / Murata

ACCELEROMETER

0

SCA220-C24H1G

SCA220-C24H1G

TOKO / Murata

ACCELEROMETER 2G ANALOG

0

Motion Sensors - Accelerometers

1. Overview

Accelerometers are motion sensors that measure acceleration forces (static or dynamic) along one or multiple axes. These devices convert mechanical motion into electrical signals, enabling quantitative analysis of vibration, tilt, shock, and dynamic movement. As core components in modern sensing systems, accelerometers play critical roles in consumer electronics, industrial automation, automotive safety systems, and aerospace navigation.

2. Main Types and Functional Classification

TypeFunctional CharacteristicsApplication Examples
Capacitive MEMSHigh sensitivity, low power consumption, digital outputSmartphones, wearable devices
PiezoelectricSelf-powered, excellent frequency responseVibration analysis, impact detection
PiezoresistiveHigh shock tolerance, analog outputAutomotive crash testing, industrial monitoring
Servo (Force-Balance)Ultra-high precision, low noiseInertial navigation, seismic monitoring
Optical MEMSImmune to electromagnetic interferenceHigh-precision scientific instruments

3. Structure and Components

Typical accelerometers consist of: - Seismic mass with specific inertial properties - Elastic suspension elements (springs or beams) - Displacement detection circuit (capacitive, piezoelectric, or resistive) - Temperature compensation circuitry - Signal conditioning electronics - Protective housing (metal/ceramic/polymer) Modern MEMS devices integrate microstructures on silicon substrates with digital interfaces (I2C/SPI).

4. Key Technical Specifications

ParameterDescriptionImportance
Measurement Range 2g to 500gDetermines application suitability
Resolution0.1mg to 10mgImpacts measurement precision
Frequency ResponseDC to 10kHzAffects dynamic signal capture
Nonlinearity 0.1% to 1% FSMeasurement accuracy indicator
Temperature Range-40 C to +150 CEnvironmental reliability
Power Consumption5 A to 10mABattery life consideration

5. Application Fields

  • Consumer Electronics: Smartphones (screen rotation), gaming controllers
  • Automotive: Airbag deployment, electronic stability control (ESC)
  • Industrial: Predictive maintenance systems, vibration monitoring
  • Healthcare: Fall detection devices, rehabilitation equipment
  • Aerospace: Flight control systems, structural health monitoring
  • Case Study: iPhone's ADXL345 MEMS accelerometer enables step counting and orientation detection

6. Leading Manufacturers

ManufacturerRepresentative ProductKey Features
Analog DevicesADXL3453-axis, 13-bit resolution, I2C interface
STMicroelectronicsLSM6DSO6-axis IMU, AI-enabled edge computing
Bosch SensortecBMI270Low-power wearable sensor, 16Hz noise
TE ConnectivityKX134-1211 400g high-shock measurement
HoneywellQA-750Tactical-grade servo accelerometer

7. Selection Guidelines

  • Determine required measurement axes (1D/2D/3D)
  • Match range/sensitivity with application requirements
  • Assess environmental conditions (temperature, vibration)
  • Select appropriate output interface (analog/digital)
  • Evaluate power consumption constraints
  • Consider calibration requirements and long-term stability

8. Industry Trends

Key development directions include: - MEMS technology advancement towards atomic-scale sensitivity - Integration with gyroscopes and AI processing (smart sensors) - Wireless sensor network compatibility - Increased adoption in autonomous vehicles and IoT edge devices - Development of ultra-low-power wake-up accelerometers - Fiber optic accelerometer systems for aerospace applications - Enhanced shock survivability for industrial harsh environments

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