DRV8834 Dual-Bridge Motor Driver

Texas Instruments Power_Management — specifications, applications, sourcing support and RFQ.

DRV8834 Dual-Bridge Motor Driver

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Part Number
DRV8834
Manufacturer
Texas Instruments
Package
24-pin HTSSOP, 7.80 mm x 4.40 mm; 24-pin VQFN, 4.00 mm x 4.00 mm
Category
Power Management
Product Type
LDO Regulator

Quick Sourcing Note

The DRV8834 from Texas Instruments is a Power_Management dual-bridge motor driver supplied in 24-pin HTSSOP and 24-pin VQFN packages. It uses a dual H-bridge current-control architecture to drive two DC motors or one bipolar stepper motor. Control options include STEP/DIRECTION indexer mode and PHASE/ENABLE mode, with indexer microstepping up to 1/32-step and external-reference operation for greater than 1/32-step microstepping. Key parameters include a 2.5 to 10.8 V recommended motor supply range, 1.5 A RMS or DC continuous output current per H-bridge at VM = 5 V and TA = 25°C, 2.2 A peak output current per bridge, 305 mΩ combined high-side plus low-side on-resistance, and 42.5 kHz typical current-control PWM frequency.

Specifications

TypeDescription
Part NumberDRV8834
ManufacturerTexas Instruments
Product TypeLDO Regulator
CategoryPower Management
Package / Case24-pin HTSSOP, 7.80 mm x 4.40 mm; 24-pin VQFN, 4.00 mm x 4.00 mm
Motor driver architectureDual H-bridge current-control motor driver; can drive two DC motors or one bipolar stepper motor
Control modesSTEP/DIRECTION indexer mode and PHASE/ENABLE mode; indexer supports up to 1/32-step microstepping; phase/enable supports external references for greater than 1/32-step microstepping
Continuous output current per H-bridge1.5 A RMS or DC; VM = 5 V, TA = 25°C; thermal limits must be observed
Peak output current per H-bridge2.2 A; peak motor drive capability per bridge
Combined high-side plus low-side on-resistance305 mΩ; VM = 5 V, TJ = 25°C
Recommended motor power supply voltage2.5 to 10.8 V; RDS(ON) increases and maximum output current is reduced below VM = 5 V
Absolute maximum motor power supply voltage-0.3 to 11.8 V with respect to ground
Recommended VREF input voltage range1 to 2.1 V; operational from 0 V to 1 V with degraded accuracy
Analog input pin voltage absolute maximum-0.5 to 3.6 V; applies to AVREF, BVREF, VINT, ADECAY, BDECAY
Digital input pin voltage absolute maximum-0.5 to 7 V; all digital input pins
Recommended digital input pin voltage range-0.3 to 5.75 V
xISEN pin voltage absolute maximum-0.3 to 0.5 V with respect to ground
Operating virtual junction temperature-40 to 150°C; absolute maximum ratings
Storage temperature-60 to 150°C; absolute maximum ratings
HBM ESD rating±4000 V; human body model, ANSI/ESDA/JEDEC JS-001, all pins
CDM ESD rating±1500 V; charged device model, JEDEC JESD22-C101, all pins
VINT external load current1 mA max
VREF external load current400 µA max
Junction-to-ambient thermal resistance40.2°C/W HTSSOP; 35.1°C/W VQFN; RθJA thermal metric
Junction-to-case top thermal resistance23.7°C/W HTSSOP; 36.6°C/W VQFN; RθJC(top) thermal metric
Junction-to-board thermal resistance21.9°C/W HTSSOP; 12.2°C/W VQFN; RθJB thermal metric
Junction-to-case bottom thermal resistance3.9°C/W HTSSOP; 4.0°C/W VQFN; RθJC(bot) thermal metric
VM operating supply current2.4 mA typ, 4 mA max; VM = 5 V, excluding winding current
VM operating supply current2.75 mA typ; VM = 10 V, excluding winding current
VM sleep mode supply current0.6 µA typ, 2 µA max; VM = 5 V
VM sleep mode supply current9.6 µA typ; VM = 10 V
VM undervoltage lockout voltage2.39 V typ; VM falling
VINT voltage2.85 V min, 3.0 V typ, 3.15 V max; VM > 3.3 V, IOUT = 0 A to 1 mA
VREFO voltage1.9 V min, 2.0 V typ, 2.1 V max; IOUT = 0 A to 400 µA
Input low voltage0.5 V max; nSLEEP input
Input low voltage0.7 V max; all other digital input pins
Input high voltage2.5 V min; nSLEEP input
Input high voltage2.0 V min; all other digital input pins
Input hysteresis0.2 V typ; nSLEEP input
Input hysteresis0.4 V typ; all except nSLEEP
Input pulldown resistance500 kΩ typ; nSLEEP input
Input pulldown resistance200 kΩ typ; all except nSLEEP and M0
Input deglitch time312 ns min, 468 ns max; logic-level inputs
nFAULT output low voltage0.5 V max; IO = 5 mA, open-drain output
High-side FET on-resistance160 mΩ typ, 250 mΩ max; VM = 5 V, IO = 500 mA, TJ = 25°C
Low-side FET on-resistance145 mΩ typ, 240 mΩ max; VM = 5 V, IO = 500 mA, TJ = 25°C
Current control PWM frequency42.5 kHz typ; internal PWM frequency
Current sense blanking time2.4 µs typ; VREF > 375 mV or DAC codes > 29%
Current sense blanking time1.6 µs typ; VREF < 375 mV or DAC codes < 29%
Output rise time120 ns typ; VM = 5 V, 16 Ω to GND, 10% to 90% VM
Output fall time100 ns typ; VM = 5 V, 16 Ω to GND, 10% to 90% VM
Overcurrent protection trip level2 A typ; protection circuits
Thermal shutdown temperature150°C min, 160°C typ, 180°C max; die temperature
VREF input current-1 µA min, 1 µA max; VREF = 3.3 V
xISEN trip voltagexVREF / 5 V; for 100% current step
Current sense amplifier gain5 V/V; reference only
Datasheet Statusrequest_only

Product Overview

The DRV8834 is a Texas Instruments dual H-bridge current-control motor driver for Power_Management designs. Its output stage can be used for two DC motors or one bipolar stepper motor, with 1.5 A RMS or DC continuous current per H-bridge under the stated VM = 5 V, TA = 25°C condition and 2.2 A peak drive capability per bridge. Thermal limits must be observed.

Key Features

  • Dual H-bridge current-control motor driver architecture
  • Drives two DC motors or one bipolar stepper motor
  • STEP/DIRECTION indexer and PHASE/ENABLE control modes
  • Indexer supports microstepping up to 1/32-step
  • PHASE/ENABLE supports external references beyond 1/32-step
  • 2.5 to 10.8 V recommended motor supply range
  • 1.5 A RMS or DC continuous current per H-bridge
  • 2.2 A peak output current per H-bridge
  • 305 mΩ combined high-side plus low-side on-resistance
  • 42.5 kHz typical internal current-control PWM frequency
  • Open-drain nFAULT output with 0.5 V maximum low voltage
  • Sleep current down to 0.6 µA typical at VM = 5 V

Typical Applications

  • Two DC motor drive channels
  • Bipolar stepper motor drive
  • Microstepped stepper motion control
  • PHASE/ENABLE external-reference motor control
  • Low-voltage motor drive systems
  • Current-controlled H-bridge designs

Procurement Notes

When requesting a quote for DRV8834, buyers should confirm the manufacturer, package or case, required quantity, target date code, compliance documents, packing method, destination country and expected delivery schedule.

If alternatives are acceptable, buyers should share the approved vendor list, required electrical or optical limits, package constraints and qualification requirements. Any alternative part should be reviewed by the buyer's engineering team before production use.

For power IC and power device sourcing, voltage rating, current rating, power dissipation, package thermal performance, protection features, qualification grade and application conditions should be reviewed before approval.

FAQ

What motor loads can the DRV8834 drive?

The DRV8834 uses a dual H-bridge current-control motor-driver architecture. Based on the extracted datasheet facts, it can drive either two DC motors or one bipolar stepper motor.

What control modes does the DRV8834 support?

The device supports STEP/DIRECTION indexer mode and PHASE/ENABLE mode. The indexer supports up to 1/32-step microstepping, while PHASE/ENABLE mode supports external references for greater than 1/32-step microstepping.

What is the recommended motor supply range?

The recommended motor power supply voltage range is 2.5 to 10.8 V. The extracted facts note that RDS(ON) increases and maximum output current is reduced below VM = 5 V.

What current can each H-bridge provide?

Each H-bridge is specified for 1.5 A RMS or DC continuous output current at VM = 5 V and TA = 25°C, with thermal limits observed. Peak output current capability is 2.2 A per bridge.

Technical Review & Sourcing Note

Prepared by LDeepAI Component Sourcing Team. Reviewed for RFQ, documentation and alternative sourcing use. Last updated: July 21, 2026.

This page is based on manufacturer datasheet information and LDeepAI sourcing review. Specifications should be verified against the official manufacturer datasheet before final procurement or design approval. Final electrical, optical and reliability approval should be confirmed by the buyer's engineering team.

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