Product details

Type 3-Axis linear Interface type I2C Sensitivity error (%) 20 Sample rate (ksps) 20 Rating Catalog Operating temperature range (°C) -40 to 125
Type 3-Axis linear Interface type I2C Sensitivity error (%) 20 Sample rate (ksps) 20 Rating Catalog Operating temperature range (°C) -40 to 125
SOT-23 (DBV) 6 8.12 mm² (2.9 mm × 2.8 mm)
  • Configurable power modes including:
    • 2.3mA active mode current
    • 1µA wake-up and sleep mode current
    • 5nA sleep mode current
  • Selectable linear magnetic range at X, Y, or Z axis:
    • TMAG5273x1: ±40mT, ±80mT
    • TMAG5273x2: ±133mT, ±266mT
  • Interrupt signal from user-defined magnetic and temperature threshold cross
  • 5% (typical) sensitivity drift
  • Integrated angle CORDIC calculation with gain and offset adjustment
  • 20kSPS single axis conversion rate
  • Configurable averaging up to 32x for noise reduction
  • Conversion trigger by I2C or dedicated INT pin
  • Optimized I2C interface with cyclic redundancy check (CRC):
    • Maximum 1MHz I2C clock speed
    • Special I2C frame reads for improved throughput
    • Factory-programmed and user-configurable I2C addresses
  • Integrated temperature compensation for multiple magnet types
  • Built-in temperature sensor
  • 1.7V to 3.6V supply voltage VCC range
  • Operating temperature range: –40℃ to +125℃
  • Configurable power modes including:
    • 2.3mA active mode current
    • 1µA wake-up and sleep mode current
    • 5nA sleep mode current
  • Selectable linear magnetic range at X, Y, or Z axis:
    • TMAG5273x1: ±40mT, ±80mT
    • TMAG5273x2: ±133mT, ±266mT
  • Interrupt signal from user-defined magnetic and temperature threshold cross
  • 5% (typical) sensitivity drift
  • Integrated angle CORDIC calculation with gain and offset adjustment
  • 20kSPS single axis conversion rate
  • Configurable averaging up to 32x for noise reduction
  • Conversion trigger by I2C or dedicated INT pin
  • Optimized I2C interface with cyclic redundancy check (CRC):
    • Maximum 1MHz I2C clock speed
    • Special I2C frame reads for improved throughput
    • Factory-programmed and user-configurable I2C addresses
  • Integrated temperature compensation for multiple magnet types
  • Built-in temperature sensor
  • 1.7V to 3.6V supply voltage VCC range
  • Operating temperature range: –40℃ to +125℃

The TMAG5273 is a low-power linear 3D Hall-effect sensor designed for a wide range of industrial and personal electronics applications. This device integrates three independent Hall-effect sensors in the X, Y, and Z axes. A precision analog signal-chain along with an integrated 12-bit ADC digitizes the measured analog magnetic field values. The I2C interface, while supporting multiple operating VCC ranges, provides seamless data communication with low-voltage microcontrollers. The device has an integrated temperature sensor available for multiple system functions, such as thermal budget check or temperature compensation calculation for a given magnetic field.

The TMAG5273 can be configured through the I2C interface to enable any combination of magnetic axes and temperature measurements. Additionally, the device can be configured to various power options (including wake-up and sleep mode) allowing designers to optimize system power consumption based on system-level needs. Multiple sensor conversion schemes and I2C read frames help optimize throughput and accuracy. A dedicated INT pin can act as a system interrupt during low power wake-up and sleep mode, and can also be used by a microcontroller to trigger a new sensor conversion.

An integrated angle calculation engine (CORDIC) provides full 360° angular position information for both on-axis and off-axis angle measurement topologies. The angle calculation is performed using two user-selected magnetic axes. The device features magnetic gain and offset correction to mitigate the impact of system mechanical error sources.

The TMAG5273 is offered in four different factory-programmed I2C addresses. The device also supports additional I2C addresses through the modification of a user-configurable I2C address register. Each orderable part can be configured to select one of two magnetic field ranges that suits the magnet strength and component placement during system calibration.

The device performs consistently across a wide ambient temperature range of –40°C to +125°C.

The TMAG5273 is a low-power linear 3D Hall-effect sensor designed for a wide range of industrial and personal electronics applications. This device integrates three independent Hall-effect sensors in the X, Y, and Z axes. A precision analog signal-chain along with an integrated 12-bit ADC digitizes the measured analog magnetic field values. The I2C interface, while supporting multiple operating VCC ranges, provides seamless data communication with low-voltage microcontrollers. The device has an integrated temperature sensor available for multiple system functions, such as thermal budget check or temperature compensation calculation for a given magnetic field.

The TMAG5273 can be configured through the I2C interface to enable any combination of magnetic axes and temperature measurements. Additionally, the device can be configured to various power options (including wake-up and sleep mode) allowing designers to optimize system power consumption based on system-level needs. Multiple sensor conversion schemes and I2C read frames help optimize throughput and accuracy. A dedicated INT pin can act as a system interrupt during low power wake-up and sleep mode, and can also be used by a microcontroller to trigger a new sensor conversion.

An integrated angle calculation engine (CORDIC) provides full 360° angular position information for both on-axis and off-axis angle measurement topologies. The angle calculation is performed using two user-selected magnetic axes. The device features magnetic gain and offset correction to mitigate the impact of system mechanical error sources.

The TMAG5273 is offered in four different factory-programmed I2C addresses. The device also supports additional I2C addresses through the modification of a user-configurable I2C address register. Each orderable part can be configured to select one of two magnetic field ranges that suits the magnet strength and component placement during system calibration.

The device performs consistently across a wide ambient temperature range of –40°C to +125°C.

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Technical documentation

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Top documentation Type Title Format options Date
* Data sheet TMAG5273 Low-Power Linear 3D Hall-Effect Sensor With I2 C Interface datasheet (Rev. C) PDF | HTML Apr 27, 2026
Application brief How Hall-Effect Sensors are Used in Electronic Smart Locks (Rev. B) PDF | HTML Jul 22, 2025
Application note Position Sensing in Electronic Smart Locks Using Hall-Effect Sensors (Rev. B) PDF | HTML Jul 22, 2025
User guide ROTATEPUSH-MAG-ACC User's Guide PDF | HTML Dec 20, 2024
User guide JOYSTICK-MAG-ACC (Rev. B) PDF | HTML Dec 11, 2024
Application note Linear Hall-Effect Sensor Array Design (Rev. B) PDF | HTML May 24, 2024
Application brief Absolute Angle Measurements for Rotational Motion Using Hall-Effect Sensors (Rev. B) PDF | HTML May 24, 2024
Application brief Mechanical Advantages of 3D Hall-Effect Sensors in Robotics Designs (Rev. A) PDF | HTML May 24, 2024
Application brief Measuring 3D Motion With Absolute Position Sensors (Rev. B) PDF | HTML May 23, 2024
Application brief Head-on Linear Displacement Sensing Using Hall-Effect Sensors (Rev. A) PDF | HTML May 22, 2024
Application brief Multi-mover Position Sensing With Linear Motor Transport Systems (Rev. A) PDF | HTML May 21, 2024
User guide TMAG5170 Slide-By Attachment (Rev. A) PDF | HTML May 21, 2024
Application brief Tracking Slide-By Displacement With Linear Hall-Effect Sensors (Rev. B) PDF | HTML May 21, 2024
Application note Magnet Selection for Linear Position Applications (Rev. B) PDF | HTML May 14, 2024
Application note Gear-Tooth Detection With Back-Biased 3D Hall-Effect Sensors PDF | HTML Apr 29, 2024
Product overview Introduction to Hall-Effect Sensors (Rev. B) PDF | HTML Apr 25, 2024
White paper How Position Sensors Enable Innovation in Automotive and Industrial Applications (Rev. A) PDF | HTML Mar 8, 2024
Certificate TMAG5273EVM EU RoHS Declaration of Conformity (DoC) (Rev. A) Jan 23, 2024
Application note Joystick and Lever Design With Hall-Effect Sensors (Rev. A) PDF | HTML Dec 21, 2023
Application brief Introduction to TI Magnetic Sense Simulator Features PDF | HTML Dec 5, 2023
User guide Texas Instruments' Magnetic Sense Simulator User's Guide PDF | HTML Dec 4, 2023
Application note Liquid Level Sensing with Hall Sensors PDF | HTML Jul 20, 2023
Application note 3D Hall-Effect Sensor for Knobs in Appliances PDF | HTML Jul 6, 2023
Application brief Angle Calculation Methods Using Position Sensor Output Data (Rev. A) PDF | HTML May 19, 2023
Application brief Hall-Effect Sensors for Steering Column Control (Rev. A) PDF | HTML May 8, 2023
Application brief Sensor Array Fan-out Techniques and Implementation (Rev. A) PDF | HTML May 5, 2023
White paper Using Hall-Effect Sensors For Contactless Rotary Encoding and Knob Applications (Rev. A) PDF | HTML May 1, 2023
Application note Angle Measurement With Multi-Axis Hall-Effect Sensors (Rev. A) PDF | HTML Apr 30, 2023
Application note Achieving Highest System Angle Sensing Accuracy (Rev. A) PDF | HTML Apr 19, 2023
Application note 3D Hall-Sensor Application in Vacuum Robots Collision PDF | HTML Mar 29, 2023
Application note Door and Window Sensor Evaluation Platform Introduction and Performance Overview PDF | HTML Dec 29, 2022
Analog design Journal Using hall-effect sensors for contactless linear movement sensing PDF | HTML Mar 31, 2022
Application brief Hall-Effect Sensors in Vacuum Robots PDF | HTML Mar 22, 2022
Application note Reed Switch Replacement with TI's Hall-effect and Linear 3D Hall-effect Sensors PDF | HTML Oct 13, 2021
Application brief Limit Detection for Tamper and End-of-Travel Detection Using Hall-Effect Sensors (Rev. A) PDF | HTML Aug 24, 2021
User guide TMAG5170 Orbital Attachment (Rev. A) PDF | HTML Jul 19, 2021
Technical article Understanding tamper detection sensors PDF | HTML Nov 18, 2019

Design & development

For additional terms or required resources, click any title below to view the detail page where available.

Evaluation board

LDC-HALL-HMI-EVM — Evaluation module for inductive touch and magnetic dial contactless user-interface design

This evaluation module (EVM) uses inductive and Hall-effect sensing technologies to provide a human-machine interface. The inductive sensing devices create eight different touch buttons on a seamless surface while the Hall-effect sensor is used to create a magnetic dial that can rotate and be used (...)
User guide: PDF | HTML
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Evaluation board

TMAG5273EVM — TMAG5273 evaluation module for low-power, linear 3D Hall-effect sensor with I²C interface

The TMAG5273EVM is an easy-to-use platform to evaluate the main features and performance of the TMAG5273 device, which is a linear 3D Hall-effect sensor. The evaluation module (EVM) includes one magnet and a TMAG5273 daughter board. The EVM works with a sensor controller board (sold separately), (...)

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Firmware

TMAG5273-MSPM0L1306-CODE-EXAMPLE — Example Code for the TMAG5273EVM connected to the LP-MSPM01306

Supported products & hardware
Firmware

TMAG5X73-CODE-EXAMPLE — TMAG5273 and TMAG5173-Q1 code example

Supported products & hardware
GUI for evaluation module (EVM)

TMAG5X73EVM-GUI — TMAG5173EVM and TMAG5273EVM GUI

TMAG5x73EVM GUI will allow users to measure and plot the magnetic fields sensed by the device
Supported products & hardware
Support software

SBAC295 — TMAG5173EVM and TMAG5273EVM BSL Batch File

Supported products & hardware
Simulation tool

TI-MAGNETIC-SENSE-SIMULATOR — TI Magnetic sensing simulation tool

The TI-MAGNETIC-SENSE-SIMULATOR (TIMSS) webtool estimates magnetic flux density and TI magnetic sensor outputs for magnetic position sensing systems. Select from our portfolio of magnetic sensors to thoroughly emulate electro-mechanical performance of your design. The tool supports various magnet (...)
Supported products & hardware
Calculation tool

HALL-PROXIMITY-DESIGN — Magnetic Sensing Proximity Tool

HALL-PROXIMITY-DESIGN is a software tool that facilitates rapid iterative design for magnet and Hall-effect sensor systems.

Supported products & hardware
Calculation tool

SBAR012 — Angle Error Calculator for Linear 3D Hall-effect Sensors

Angle Error Calculator for Linear 3D Hall-effect Sensors
Supported products & hardware
Reference design

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This reference design implements Class 0.1 three-phase energy measurement using a high-performance, multichannel analog-to-digital converter (ADC), which samples current transformers (CT) at 8kHz to measure the current and voltage of each leg of the AC mains. This reference design achieves high (...)

Supported products & hardware
Reference design

TIDA-010244 — Three-phase shunt-based energy metrology reference design

This reference design implements Class 0.2S three-phase energy measurement using an isolated high-performance, multichannel analog-to-digital converter (ADC), which samples shunt current sensors at 4kHz to measure the current and voltage of each leg of the AC mains. The reference design achieves (...)
Supported products & hardware
Reference design

TIDA-010944 — Single-phase and split-phase shunt energy metrology reference design

This reference design implements a single-phase with neutral or split-phase energy measurement subsystem using one isolated and one non-isolated standalone multichannel analog-to-digital converters (ADCs) with two shunts. The combination of shunt sensors and a low-power linear 3D Hall-effect (...)
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Reference design

TIDA-010950 — Damper and EEV controller Reference Design with power regulation and Hall-effect position sensing

This reference design demonstrates a dual motor drive solution for damper actuators and electronic expansion valves . The multiple motor drives include one bipolar stepper motor driver, one brushless DC motor driver, operating from a 15VDC source. The design shows accurate power limiting that helps (...)

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Reference design

TIDA-060039 — Inductive touch and magnetic dial contactless user-interface reference design

This reference design uses inductive and Hall-effect sensing technologies to provide a human-machine interface. The inductive sensing devices create eight different touch buttons on a seamless surface while the Hall-effect sensor is used to create a magnetic dial that can rotate and be used as an (...)

Supported products & hardware
Reference design

TIDA-060045 — Accurate low-latency linear position sense reference design with quad 3D Hall-effect sensors

This reference design demonstrates precision, low-latency linear position sensing of a N45 magnet target using single or multiple equidistant placed 3D Hall-effect sensors TMAG5170 with high-speed 10MHz SPI interface, where the Z-axis and X-axis magnetic field strength as well as CRC data are (...)
Supported products & hardware
Package Pins CAD symbols, footprints & 3D models
SOT-23 (DBV) 6 Ultra Librarian

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