Datasheet4U Logo Datasheet4U.com

MMA8451Q - 14-bit/8-bit digital accelerometer

General Description

40 °C to +85 °C QFN-16

© NXP Semiconductors N.V.

.

.

.

Key Features

  • 1.95 V to 3.6 V supply voltage.
  • 1.6 V to 3.6 V interface voltage.
  • ±2 g/±4 g/±8 g dynamically selectable full scale.
  • Output data rates (ODR) from 1.56 Hz to 800 Hz.
  • 99 μg/√Hz noise.
  • 14-bit and 8-bit digital output.
  • I2C digital output interface.
  • Two programmable interrupt pins for seven interrupt sources.
  • Three embedded channels of motion detection.
  • Freefall or motion detection: one channel.
  • Pulse d.

📥 Download Datasheet

More Datasheets from NXP Semiconductors

Part Number Description
MMA8452Q 12-bit/8-bit digital accelerometer
MMA8453Q 10-bit/8-bit digital accelerometer
MMA8491Q 3-Axis Multifunction Digital Accelerometer
MMA8104EG Digital X-Axis or Z-Axis Accelerometer
MMA8104EGR2 Digital X-Axis or Z-Axis Accelerometer
MMA8110EG Digital X-Axis or Z-Axis Accelerometer
MMA8110EGR2 Digital X-Axis or Z-Axis Accelerometer
MMA8115EG Digital X-Axis or Z-Axis Accelerometer
MMA8115EGR2 Digital X-Axis or Z-Axis Accelerometer
MMA8125EG Digital X-Axis or Z-Axis Accelerometer

Full PDF Text Transcription for MMA8451Q (Reference)

Note: Below is a high-fidelity text extraction (approx. 800 characters) for MMA8451Q. For precise diagrams, tables, and layout, please refer to the original PDF.

NXP Semiconductors Data sheet: Technical data Document Number: MMA8451Q Rev. 10.3, 02/2017 MMA8451Q,...

View more extracted text
3-axis, 14-bit/8-bit digital accelerometer MMA8451Q The MMA8451Q is a smart, low-power, three-axis, capacitive, micromachined accelerometer with 14 bits of resolution. This accelerometer is packed with embedded functions with flexible user programmable options, configurable to two interrupt pins. Embedded interrupt functions allow for overall power savings relieving the host processor from continuously polling data. There is access to both low-pass filtered data as well as high-pass filtered data, which minimizes the data analysis required for jolt detection and faster transitions.