Accelerometers
Analog Devices accelerometers and iSensor® MEMS accelerometer subsystems provide accurate detection while measuring acceleration, tilt, shock, and vibration in performance driven application. Our portfolio leads the industry in power, noise, bandwidth, and temperature specifications, and offers a range of MEMS sensor and signal conditioning integration on chip. Our MEMS-based Circuits from the Lab® reference designs have been built and tested by ADI experts to help you jumpstart your next system design.
Product Selection Table
Latest Resources
Press Release
- Analog Devices’ MEMS Accelerometers Provide Low Power Vibration Measurements, Enabling Wireless Condition Monitoring
- Analog Devices’ Ultralow Power Accelerometer Enables Remote IoT Edge Nodes to Monitor Asset Health
- Analog Devices’ MEMS Accelerometers Enable Early Detection of Structural Defects
- First MEMS Accelerometer with MIN/MAX Offset Sensitivity to Temperature Enables Predictable and Quantifiable Performance
- Analog Devices Introduces Industry’s Lowest Power MEMS Accelerometer
- Analog Devices Introduces Industry’s First Analog 3-axis, High-g MEMS Accelerometer
Application Notes
- AN-1305: ADIS16445/ADIS16448 Mechanical Design Guidelines and Examples (Rev. 0) PDF
- AN-1057: Using an Accelerometer for Inclination Sensing (Rev. 0) PDF
- AN-688: Phase and Frequency Response of iMEMS® Accelerometers and Gyros (Rev. 0) PDF
- AN-1266: Autonomous Shock Event Monitoring with the ADXL375 (Rev. 0) PDF
- AN-1078: ADXL346 Quick Start Guide (Rev. 0) PDF
- AN-1077: ADXL345 Quick Start Guide (Rev. 0) PDF
Technical Articles
- Choosing the Most Suitable Predictive Maintenance Sensor
- Enabling Robust Wired Condition-Based Monitoring for Industry 4.0—Part 2
- The Wearable for Machine Health: Condition-Based Monitoring
- Enabling Robust Wired Condition-Based Monitoring for Industry 4.0 Part 1
- Choose the Right Accelerometer for Predictive Maintenance
- Optical Heart Rate Measurement at the Earbud
- Demands on Sensors for Future Servicing: Smart Sensors for Condition Monitoring
- MEMS Accelerometer Performance Comes Of Age
- What You Need to Know About MEMS Accelerometers for Condition Monitoring
- Mechanical Design for Microphonic-Sensitive Electronics
- MEMS Vibration Sensing: Velocity to Acceleration
- Vibration Rectification in MEMS Accelerometers
- Elusive Tones: Aliasing Effects in Digital MEMS Accelerometers in Condition Monitoring
- High Performance Inertial Sensing Solutions Enable Autonomous Machine Applications
- Low Noise or Low Power? Yes!
- MEMS Enable Medical Innovation
- Soldier-worn sensor that measures the destructive power of explosives uses MEMS accelerometer from Analog Devices
- Blackbox Biometrics testing ADI MEMS for Blast Gauge Monitor
- Microelectronic Sensing System Enables In-Flight Arrow Ballistics Measurement
- Inertial MEMS, from Life Enhancing to Life Saving
- Improving Industrial Control with Integrated MEMS Inertial Sensors
- Precision Tilt/Fall Detector Consumes Less Than 1.5 mW
- Making MEMS Accelerometers Work in Motion Control
- Hot Hands For Some Cool Rock: Motion Sensing Meets Audio Engineering
Product Selection Guide
White Papers
Circuit Note
Solutions Bulletins & Brochures
Webcast
Videos
- ADIS1650x Family of Precision, Miniature MEMS IMUs
- Analog Devices Vital Sign Monitoring Solution for Digital Health
- Race to Autonomy: Enabling Trusted Navigation & Reliable Perception
- ADI: Inertial Measurement Unit (IMU)-Based Stabilization
- From ADAS to Full Autonomy with Analog Devices
- CbM Sensor Node Powered by Analog Devices' Thermoelectric Energy Harvesting
- iCOMOX: Intelligent Condition Monitoring Box
- Analog Devices: Industry 4.0 - AI on the Edge
- Autnomous Navigation and Monitoring Using Precision Inertial MEMS by Analog Devices
- Analog Devices: Wearable Device to Collect Human Vital Signs, Fueling Digital Health
- Wireless Web-based Evaluation Tool for Analog Devices' IMUs
- How to Simplify Your Wearable Design
- Getting Your Electronics Designs Finished
- Analog Devices' Machine and Structural Health Monitoring
- A2B Eco-System for Next Generation Audio and Video Connectivity
- Analog Devices Condition Based Monitoring for Industry 4.0
- Condition-Based Monitoring for Industrial Automation
- How to Simplify Your Wearable Design
- Smart Bracelet for Heart Rate, Impedance and Motion Sensing
- Structural Health Monitoring
- A2B: Eco-System for Revolutionary Audio & Voice Connectivity
- Asset Health Monitoring for Better Insights during Transit
- Structural Health Monitoring (SHM) Demo
- MEMS IMUs for Demanding UAV Applications
- Next-Generation Sensors for Condition-Based Monitoring
- Condition-Based Monitoring for Industry 4.0
- MEMS IMUs for Demanding UAV Applications
- Lowest Power Edge Nodes: Structural Health Monitoring
- Multi-Parameter Health Monitoring Platforms and IoT Ecosystem
- Self Powered Condition Based Monitoring
- Precision MEMS IMUs for Smart Agriculture
- Smart Crop Monitoring
- Ultralow power Asset Health Monitoring
- IoT Asset Health Tracking & Remote Toxic Gas Sensing
- Analog Devices Connect: IoT Development Platform
- Analog Devices Connect: Cloud Platform
- IoT Asset Health Tracking
- Ultralow Power MEMS Accelerometer Enables Asset Health Detection
- Multiparameter Wearable Vital Signs Monitoring Platform
- ADICUP360 - Complete Sensor to Cloud IoT Development Kit
- Crop Connect - Environmental Monitoring for Smart Agriculture
- Fast Start IoT Development Platform
- Advanced Digital Ultralow Power MEMS Accelerometers
- MEMS Accelerometers for Smart Infrastructure
- Wireless Charging for Zero Pin Sensor
- Smart Health: Vital Sign Monitoring
- The Internet of Tomatoes
- Getting Started with the EVAL-ADXL362-ARDZ
- Wearable Health Evaluation Platform & Embedded IoT Camera system
- High-performance MEMS What Does That Mean
Customer Case Studies
- INDYCAR Success Story PDF
- Zoll Medical Case Study
- AutoFarm® Enables Automated, Ultra Precise Farm Cultivation Using Analog Devices' MEMS Inertial Sensor Technologies
- Roessingh Research and Development taps Xsens' ADI MEMS powered inertial sensor technology to measure rowing kinematics with unprecedented 3D precision PDF
- Full Flight Technology Success Story PDF
Informational
Frequently Asked Question
- I need finer resolution. What do I do?
- What is the limit of resolution of an inertial sensor?
- What is an inertial sensor?
- What is an accelerometer and a gyroscope, and how do they differ?
- What are the major error sources for inertial sensors?
- MEMS Accelerometer Applications, what's Fantasy and what's Reality?
- Where would you use a gyroscope?
- Where would you use an accelerometer?
Accelerometers
| SortOrder | Part# | # of Axes | Accelerometer Range | BW (typ) (Hz) | Output Type | Sensing Axis | Is (typ) (A) | Vs+ (min) (V) | Vs+ (max) (V) | Price (1000+) ($ US) |
|---|---|---|---|---|---|---|---|---|---|---|
| 1 | ADXL317 | 3 | 16 g | 4k | I²C, I2S | X, Y, Z | 5m | 3 | 3.6 | - |
| 2 | ADCMXL1021-1 | 1 | 50 g | 10k | Digital, SPI | Z | 23.9 | 3 | 3.6 | $164.28 (ADCMXL1021-1BMLZ) |
| 3 | ADXL1003 | 1 | 200 g | 15k | Analog | X | 1m | 3 | 5.5 | $32.52 (ADXL1003BCPZ) |
| 4 | ADXL1005 | 1 | 100 g | 23k | Analog | X | 1m | 3 | 5.25 | $39.41 (ADXL1005BCPZ) |
| 5 | ADXL372 | 3 | 200 g | 3.2k | I²C, SPI | X, Y, Z | 22µ | 1.6 | 3.5 | $6.33 (ADXL372BCCZ-RL7) |
| 6 | ADXL357 | 3 | 10 g, 20 g, 40 g | 1k | I²C, SPI | X, Y, Z | 200µ | 2.25 | 3.6 | $31.87 (ADXL357BEZ) |
| 7 | ADXL356 | 3 | 10 g, 20 g, 40 g | 1.5k | Analog | X, Y, Z | 150µ | 2.25 | 3.6 | $28.68 (ADXL356BEZ) |
| 8 | ADXL251 | 2 | 120 g, 240 g, 480 g, 60 g | 400 | PSI5, SPI | X, Y | 6m | 3.135 | 11 | - |
| 9 | ADXL1002 | 1 | 50 g | 11k | Analog | X | 1m | 3.3 | 5.25 | $29.66 (ADXL1002BCPZ) |
| 10 | ADXL1001 | 1 | 100 g | 11k | Analog | X | 1m | 3.3 | 5.25 | $29.66 (ADXL1001BCPZ) |
| 11 | ADXL1004 | 1 | 500 g | 24k | Analog | X | 1m | 3.3 | 5.25 | $35.85 (ADXL1004BCPZ) |
| 12 | ADXL355 | 3 | 2 g, 4 g, 8 g | 1k | I²C, SPI | X, Y, Z | 200µ | 2.25 | 3.6 | $28.33 (ADXL355BEZ) |
| 13 | ADXL354 | 3 | 2 g, 4 g, 8 g | 1.5k | Analog | X, Y, Z | 150µ | 2.25 | 3.6 | $25.50 (ADXL354BEZ) |
| 14 | ADXL151 | 1 | 120 g, 240 g, 480 g | 400 | PSI5 | X | 5m | 4.5 | 11 | - |
| 15 | ADXL316 | 3 | 16 g | 1.6k | Analog | X, Y, Z | 350µ | 1.8 | 3.6 | $3.30 (ADXL316WBCSZ) |
| 16 | ADXL700 | 3 | 14.2 g | - | SPI | X, Y, Z | 5m | 3.135 | 5.25 | - |
| 17 | ADXL363 | 3 | 2 g, 4 g, 8 g | 200 | SPI | X, Y, Z | 1.8µ | 1.6 | 3.5 | $3.78 (ADXL363BCCZ-RL7) |
| 18 | ADXL375 | 3 | 200 g | 1.6k | I²C, SPI | X, Y, Z | 145µ | 2 | 3.6 | $4.52 (ADXL375BCCZ) |
| 19 | ADXL313 | 3 | 0.5 g, 1 g, 2 g, 4 g | 1.6k | I²C, SPI | X, Y, Z | 170µ | 2 | 3.6 | $3.70 (ADXL313WACPZ-RL) |
| 20 | ADXL295 | 2 | 120 g | 408 | SPI | X, Y | 7m | 3.135 | 5.25 | - |
| 21 | ADXL288 | 2 | 120 g | 408 | SPI | X, Y | 7m | 3.135 | 5.25 | - |
| 22 | ADXL377 | 3 | 200 g | 1.6k | Analog | X, Y, Z | 300µ | 1.8 | 3.6 | $4.38 (ADXL377BCPZ-RL) |
| 23 | ADXL362 | 3 | 2 g, 4 g, 8 g | 200 | SPI | X, Y, Z | 1.8µ | 1.6 | 3.5 | $2.67 (ADXL362BCCZ-RL) |
| 24 | ADXL350 | 3 | 1 g, 2 g, 4 g, 8 g | 1.6k | I²C, SPI | X, Y, Z | 166µ | 2 | 3.6 | $3.43 (ADXL350BCEZ-RL) |
| 25 | ADXL344 | 3 | 16 g, 2 g, 4 g, 8 g | 1.6k | I²C, SPI | X, Y, Z | 140µ | 1.7 | 2.75 | $1.19 (ADXL344ACCZ-RL7) |
| 26 | ADXL343 | 3 | 16 g, 2 g, 4 g, 8 g | 1.6k | I²C, SPI | X, Y, Z | 140µ | 2 | 3.6 | $1.15 (ADXL343BCCZ) |
| 27 | ADXL195 | 1 | 120 g | 408 | SPI | X | - | 3.135 | 5.25 | - |
| 28 | ADXL189B | 1 | 120 g, 240 g, 30 g, 480 g, 60 g | 398 | PSI5 | X | 5m | - | 11 | - |
| 29 | ADXL185B | 1 | 120 g, 240 g, 30 g, 480 g, 60 g | 398 | PSI5 | Z | 5m | - | 11 | - |
| 30 | ADXL212 | 2 | 2 g | 500 | PWM | X, Y | 700µ | 3 | 5.25 | $13.45 (ADXL212AEZ) |
| 31 | ADIS16228 | 3 | 18 g | 5k | SPI | X, Y, Z | 40m | 3 | 3.6 | $159.00 (ADIS16228CMLZ) |
| 32 | ADXL206 | 2 | 5 g | 400 | Analog | X, Y | 700µ | 4.75 | 5.25 | $488.77 (ADXL206HDZ) |
| 33 | ADIS16210 | 3 | 1.7 g | 50 | SPI | X, Y, Z | 18m | 3 | 3.6 | $97.00 (ADIS16210CMLZ) |
| 34 | ADXL312 | 3 | 1.5 g, 12 g, 3 g, 6 g | 1.6k | I²C, SPI | X, Y, Z | 170µ | 2 | 3.6 | $1.65 (ADXL312ACPZ) |
| 35 | ADXL337 | 3 | 3 g | 1.6k | Analog | X, Y, Z | 350µ | 1.8 | 3.6 | $1.57 (ADXL337BCPZ-RL) |
| 36 | ADXL346 | 3 | 16 g, 2 g, 4 g, 8 g | 1.6k | I²C, SPI | X, Y, Z | 140µ | 1.7 | 2.75 | $2.44 (ADXL346ACCZ-RL) |
| 37 | ADXL327 | 3 | 2 g | 1.6k | Analog | X, Y, Z | 350µ | 1.8 | 3.6 | $2.38 (ADXL327BCPZ) |
| 38 | ADXL326 | 3 | 16 g | 1.6k | Analog | X, Y, Z | 350µ | 1.8 | 3.6 | $2.38 (ADXL326BCPZ) |
| 39 | ADXL325 | 3 | 6 g | 1.6k | Analog | X, Y, Z | 350µ | 1.8 | 3.6 | $2.38 (ADXL325BCPZ) |
| 40 | ADXL345 | 3 | 16 g, 2 g, 4 g, 8 g | 1.6k | I²C, SPI | X, Y, Z | 140µ | 2 | 3.6 | $2.31 (ADXL345BCCZ) |
| 41 | ADIS16240 | 3 | 19 g | 1.6k | SPI | X, Y, Z | 1m | 2.4 | 3.6 | - |
| 42 | ADXL335 | 3 | 3 g | 1.6k | Analog | X, Y, Z | 350µ | 1.8 | 3.6 | $2.38 (ADXL335BCPZ) |
| 43 | ADIS16209 | 1 | ±180°, ±90° | 50 | SPI | X, Y, Z | 14m | 3 | 3.6 | $35.85 (ADIS16209CCCZ) |
| 44 | ADXL180 | 1 | 50 g | 400 | 2-wire HV or I | X | 7.7m | 5 | 14.5 | - |
| 45 | ADIS16203 | 1 | ±180° | 2.25k | SPI | Z | 11m | 3 | 3.6 | $24.76 (ADIS16203CCCZ) |
| 46 | ADIS16201 | 2 | 1.7 g | 2.25k | SPI | X, Y | 11m | 3 | 3.6 | $24.76 (ADIS16201CCCZ) |
| 47 | ADIS16006 | 2 | 5 g | 2.25k | SPI | X, Y | 1.4m | 3 | 5.25 | $22.94 (ADIS16006CCCZ) |
| 48 | ADIS16003 | 2 | 1.7 g | 2.25k | SPI | X, Y | 1.4m | 3 | 5.25 | $18.50 (ADIS16003CCCZ) |
| 49 | ADXL213 | 2 | 1.2 g | 2.5k | PWM | X, Y | 700µ | 3 | 6 | $13.45 (ADXL213AE) |
| 50 | ADXL203 | 2 | 1.7 g | 2.5k | Analog | X, Y | 700µ | 3 | 6 | $13.45 (AD22037Z) |
| 51 | ADXL103 | 1 | 1.7 g | 2.5k | Analog | X | 700µ | 3 | 6 | $11.19 (AD22035Z) |
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