STMicroelectronics

ASM330LHH - 6-Axis Inertial Measurement Unit | STMicroelectronics

Name: ASM330LHH
Brand: STMicroelectronics
Price: 8.50 USD
Availability: InStock

MPN: ASM330LHH ✓ Active

In Stock (99,999) Ships in 1-3 business days

1.71 V to 3.6 V Vdss 0.9 mA Id LGA-14 (2.5 mm x 3.0 mm) Package ±2/±4/±8/±16 g Memory

$8.5 USD / Unit

MOQ: 1 |

Volume Pricing

Qty	Unit Price	Extended
1	$8.5	$8.50
10	$7.65	$76.50
100	$6.8	$680.00
500	$6.12	$3,060.00
1,000	$5.44	$5,440.00

ℹ️ All prices are in USD

View Datasheet (PDF) View Alternatives

Quantity

Drop-in alternatives for ASM330LHH — same package, pin-to-pin compatible. Different-package parts requiring PCB rework are excluded.

Quick Comparison Tool — Select alternative parts for side-by-side comparison:

LSM6DSO

✅ Drop-In

📦 LGA-14

Not AEC-Q100 qualified, narrower temperature range (-40°C to +85°C), lower shock tolerance

📋 Reference alternative (not in catalog)

ASM330LHHX

✅ Drop-In

📦 LGA-14

Extended temperature range variant, same pinout

📋 Reference alternative (not in catalog)

ICM-42688-P

✅ Drop-In

📦 LGA-14

Cross-brand, different register map, similar performance

📋 Reference alternative (not in catalog)

BMI270

✅ Drop-In

📦 LGA-14

Cross-brand, different register map, lower shock tolerance

📋 Reference alternative (not in catalog)

ASM330LHH Maximum Ratings & Electrical Characteristics

Accelerometer Full-Scale Range	±2/±4/±8/±16 g
Gyroscope Full-Scale Range	±125/±250/±500/±1000/±2000 dps
Accelerometer Noise Density	90 µg/√Hz
Gyroscope Noise Density	4 mdps/√Hz
Supply Voltage	1.71 V to 3.6 V
Interface	I2C (400 kHz) / SPI (10 MHz)
Output Data Rate (ODR)	Up to 6.66 kHz
FIFO Buffer Size	2 KB
Operating Temperature Range	-40°C to +105°C
Package	LGA-14 (2.5 mm x 3.0 mm)
Mounting Type	Surface Mount
AEC-Q100 Qualification	Yes
Shock Tolerance	10000 g
Low-Power Mode Current	0.9 mA
Power-Down Current	1 µA
Resolution	16-bit

ASM330LHH Pin Configuration

Pin 1	VDD_IO — Power supply for I/O pins
Pin 2	SCL/SPC — I2C clock / SPI clock
Pin 3	SDA/SDI/SDO — I2C data / SPI data in / SPI data out
Pin 4	CS — Chip select (low for SPI)
Pin 5	INT1 — Interrupt 1 output
Pin 6	INT2 — Interrupt 2 output
Pin 7	GND — Ground
Pin 8	GND — Ground
Pin 9	VDD — Power supply
Pin 10	NC — Not connected
Pin 11	NC — Not connected
Pin 12	NC — Not connected
Pin 13	NC — Not connected
Pin 14	NC — Not connected

Safe Operating Area (SOA) & Thermal Characteristics

No official SOA curve available for this component. Always operate within absolute maximum ratings specified in the datasheet. Ensure adequate cooling and derate as needed.

Typical Applications

ASM330LHH is suitable for 6 applications: Automotive Electronic Stability Control (ESC), Inertial Navigation Systems (INS), Industrial Robotics, Platform Stabilization, Vibration Monitoring, IoT Motion Sensing.

🚗

Automotive Electronic Stability Control (ESC)

The ASM330LHH provides real-time yaw rate and lateral acceleration data essential for ESC systems. Its AEC-Q100 qualification and wide temperature range (-40°C to +105°C) ensure reliable operation in automotive environments. The high shock tolerance of 10000 g withstands road impacts. The device's low noise density (4 mdps/√Hz gyro) enables precise vehicle dynamics control, improving safety and stability. In ESC, the IMU is typically mounted near the vehicle's center of gravity, with data transmitted via SPI at high ODR to the ECU for rapid response.

Recommended

SPC560P50 (MCU for ESC control) L9369 · STMicroelectronics

✈️

Inertial Navigation Systems (INS)

The ASM330LHH is used in INS for dead reckoning and orientation tracking. Its 16-bit resolution and low noise (90 µg/√Hz accel, 4 mdps/√Hz gyro) provide accurate velocity and position estimates. The device's 2 KB FIFO buffer allows efficient data batching, reducing host processor load. In INS, the IMU is often fused with GPS data using sensor fusion algorithms. The wide full-scale ranges (±16 g, ±2000 dps) accommodate dynamic maneuvers. The SPI interface supports high-speed data streaming for real-time navigation updates.

Recommended

STM32F4 (MCU for sensor fusion) Teseo-LIV3F (GPS module for fusion)

🏭

Industrial Robotics

The ASM330LHH enables precise motion feedback in industrial robots for accurate positioning and vibration monitoring. Its high ODR (up to 6.66 kHz) captures fast movements, while the low noise density ensures smooth control. The device's robust design, including 10000 g shock tolerance, withstands harsh factory environments. In robotics, the IMU is mounted on the robot arm to measure orientation and angular rate, enabling closed-loop control. The FIFO buffer reduces communication overhead, allowing the controller to focus on real-time tasks.

Recommended

STM32H7 (High-performance MCU for control) L6470 (Motor driver for actuators)

📷

Platform Stabilization

The ASM330LHH is ideal for stabilizing platforms such as camera gimbals and antenna systems. Its low noise and high bandwidth enable precise correction of angular deviations. The device's programmable ODR allows tuning for specific stabilization needs. In a gimbal, the IMU measures angular rate, and the controller adjusts motors to counteract unwanted motion. The compact LGA-14 package fits space-constrained designs. The SPI interface provides fast data transfer for real-time control loops.

Recommended

STM32F3 (MCU for motor control) DRV8313 (Motor driver for gimbal)

🔧

Vibration Monitoring

The ASM330LHH's high ODR and low noise make it suitable for vibration monitoring in industrial equipment. It can detect anomalies in machinery by analyzing acceleration patterns. The device's wide full-scale range (±16 g) captures high-amplitude vibrations. The FIFO buffer allows efficient data collection for analysis. In predictive maintenance, the IMU is attached to equipment, and data is processed to identify wear or faults. The device's robust design ensures long-term reliability in industrial settings.

Recommended

STM32L4 (Low-power MCU for data logging) S2LP (Sub-GHz radio for wireless monitoring)

🧩

IoT Motion Sensing

The ASM330LHH is used in IoT devices for motion detection and activity tracking. Its low power consumption (0.9 mA in low-power mode) extends battery life. The device's small package and wide voltage range (1.71V to 3.6V) simplify integration. In IoT, the IMU can detect motion events and wake the system from sleep. The I2C interface is suitable for low-speed communication with low-power MCUs. The device's self-test capability ensures reliable operation in field deployments.

Recommended

STM32L0 (Ultra-low-power MCU) SPSGRF (Sub-GHz radio module)

Recommended Products Summary

SPC560P50 MCU for ESC control Used in: Automotive Electronic Stability Control (ESC) L9369 STMicroelectronics Used in: Automotive Electronic Stability Control (ESC) STM32F4 MCU for sensor fusion Used in: Inertial Navigation Systems (INS) Teseo-LIV3F GPS module for fusion Used in: Inertial Navigation Systems (INS) STM32H7 High-performance MCU for control Used in: Industrial Robotics L6470 Motor driver for actuators Used in: Industrial Robotics STM32F3 MCU for motor control Used in: Platform Stabilization DRV8313 Motor driver for gimbal Used in: Platform Stabilization STM32L4 Low-power MCU for data logging Used in: Vibration Monitoring S2LP Sub-GHz radio for wireless monitoring Used in: Vibration Monitoring STM32L0 Ultra-low-power MCU Used in: IoT Motion Sensing SPSGRF Sub-GHz radio module Used in: IoT Motion Sensing

What is the ASM330LHH?

The ASM330LHH is a 6-axis inertial measurement unit (IMU) from STMicroelectronics that integrates a 3-axis accelerometer and a 3-axis gyroscope in a single LGA-14 package. It is designed for automotive and industrial applications, offering full-scale ranges of ±2/±4/±8/±16 g for acceleration and ±125/±250/±500/±1000/±2000 dps for angular rate. According to the ST datasheet, it operates from 1.71V to 3.6V and supports I2C and SPI interfaces.

What is the operating voltage of ASM330LHH?

The ASM330LHH operates from a supply voltage of 1.71V to 3.6V. This wide range allows it to be powered directly from common 1.8V, 2.5V, or 3.3V rails without additional regulation. According to the ST datasheet, the device includes an internal voltage regulator, ensuring stable operation across the full voltage range.

What is the output data rate (ODR) of ASM330LHH?

The ASM330LHH supports output data rates up to 6.66 kHz for both the accelerometer and gyroscope. This high ODR enables precise tracking of fast motion, making it suitable for applications like vibration analysis and high-speed robotics. The ODR is programmable via the control registers, allowing trade-offs between power consumption and performance.

What is the noise density of ASM330LHH?

The ASM330LHH has a noise density of 90 µg/√Hz for the accelerometer and 4 mdps/√Hz for the gyroscope. These low noise levels ensure high-resolution measurements, critical for applications requiring fine motion detection, such as platform stabilization and inertial navigation. According to the ST datasheet, this performance is achieved through advanced MEMS design and signal conditioning.

Is ASM330LHH AEC-Q100 qualified?

Yes, the ASM330LHH is AEC-Q100 qualified, making it suitable for automotive applications. This qualification ensures the device meets stringent reliability and performance standards for automotive environments, including extended temperature ranges and vibration resistance. According to the ST datasheet, the device operates from -40°C to +105°C.

What is the package type of ASM330LHH?

The ASM330LHH comes in a 14-pin LGA (Land Grid Array) package measuring 2.5 mm x 3.0 mm. This compact package is surface-mountable and suitable for space-constrained designs. The LGA package provides good thermal and mechanical stability, and its small footprint makes it ideal for portable and embedded applications.

What interfaces does ASM330LHH support?

The ASM330LHH supports both I2C (up to 400 kHz) and SPI (up to 10 MHz) interfaces. This flexibility allows designers to choose the appropriate bus for their system, with SPI offering higher data rates for streaming high-frequency data. According to the ST datasheet, the interface is selected via the CS pin, with I2C as the default when CS is high.

What is the FIFO buffer size of ASM330LHH?

The ASM330LHH has a 2 KB FIFO buffer that can store accelerometer and gyroscope data. This buffer reduces host processor load by allowing data to be batched and read in bursts, which is particularly useful in low-power applications where the host can sleep longer. The FIFO can be configured to trigger interrupts on threshold or watermark events.

What is the power consumption of ASM330LHH?

The ASM330LHH consumes 0.9 mA in low-power mode and 1 µA in power-down mode. In normal operation, current consumption varies with the output data rate and sensor configuration. According to the ST datasheet, the device offers multiple power modes to balance performance and energy efficiency, making it suitable for battery-powered devices.

What is the shock tolerance of ASM330LHH?

The ASM330LHH has a shock tolerance of 10000 g, meaning it can withstand high mechanical shocks without damage. This makes it robust for automotive and industrial environments where impacts and vibrations are common. According to the ST datasheet, this high shock resistance ensures reliable operation in harsh conditions.

What are the typical applications of ASM330LHH?

The ASM330LHH is used in automotive electronic stability control (ESC), inertial navigation systems, industrial robotics, and platform stabilization. Its high accuracy and low noise make it suitable for applications requiring precise motion sensing. In ESC, it provides yaw rate and lateral acceleration data for vehicle dynamics control, while in robotics it enables accurate motion feedback.

Where can I buy ASM330LHH online?

The ASM330LHH is available from major distributors such as DigiKey and Mouser. As of 2026-08-12, the price for a single unit is approximately $8.50 USD, with volume discounts available. You can also purchase directly from STMicroelectronics or authorized distributors. Check current stock and pricing on DigiKey or Mouser websites.

What is the price of ASM330LHH?

As of 2026-08-12, the ASM330LHH is priced at approximately $8.50 USD for a single unit, $7.65 for 10 units, $6.80 for 100 units, $6.12 for 500 units, and $5.44 for 1000 units. Prices may vary by distributor and quantity. For the most accurate pricing, check DigiKey or Mouser.

What is the lead time for ASM330LHH?

The lead time for ASM330LHH typically ranges from 2 to 4 weeks, depending on distributor stock and order quantity. As of 2026-08-12, DigiKey and Mouser may have stock available for immediate shipment. For large orders, contact the distributor for specific lead time estimates.

Is ASM330LHH in stock?

As of 2026-08-12, the ASM330LHH is likely in stock at major distributors like DigiKey and Mouser, but availability can change. Check the product pages on these websites for real-time stock status. If out of stock, you can request a backorder or check alternative distributors.

ASM330LHH vs LSM6DSO - which is better for automotive?

For automotive applications, the ASM330LHH is generally preferred over the LSM6DSO because it is AEC-Q100 qualified, while the LSM6DSO is not. The ASM330LHH also offers a wider temperature range (-40°C to +105°C) and higher shock tolerance (10000 g), making it more robust for automotive environments. However, the LSM6DSO may offer lower power consumption for consumer applications.

What is the difference between ASM330LHH and LSM6DSO?

The ASM330LHH and LSM6DSO are both 6-axis IMUs from STMicroelectronics, but the ASM330LHH is AEC-Q100 qualified for automotive use, while the LSM6DSO is not. The ASM330LHH has a wider temperature range (-40°C to +105°C) and higher shock tolerance (10000 g) compared to the LSM6DSO. Both share similar full-scale ranges and interfaces, but the ASM330LHH is designed for more demanding environments.

When should I choose ASM330LHH over LSM6DSO?

Choose the ASM330LHH over the LSM6DSO when you need AEC-Q100 qualification for automotive applications, or when operating in environments with extreme temperatures (-40°C to +105°C) or high shock (up to 10000 g). The ASM330LHH is also preferred for industrial applications requiring high reliability. For consumer applications with lower environmental demands, the LSM6DSO may be more cost-effective.

What is the best drop-in replacement for ASM330LHH?

The best drop-in replacement for the ASM330LHH is the LSM6DSO, which shares the same LGA-14 package and pinout. However, the LSM6DSO is not AEC-Q100 qualified, so it is not suitable for automotive applications. For automotive-grade replacements, consider the ASM330LHHX (if available) or other AEC-Q100 qualified IMUs from STMicroelectronics. Always verify pin compatibility before substitution.

Can LSM6DSO replace ASM330LHH?

Yes, the LSM6DSO can replace the ASM330LHH in most applications because it is pin-compatible and shares the same LGA-14 package. However, the LSM6DSO is not AEC-Q100 qualified, so it is not suitable for automotive applications. Additionally, the LSM6DSO has a narrower temperature range (-40°C to +85°C) and lower shock tolerance, so it may not be suitable for harsh environments.

Where to download ASM330LHH datasheet PDF?

The ASM330LHH datasheet PDF can be downloaded from the STMicroelectronics website at https://www.st.com/resource/en/datasheet/asm330lhh.pdf. This datasheet contains complete specifications, pinout, and application notes. You can also find it on distributor websites like DigiKey and Mouser.

Where to find ASM330LHH pinout?

The ASM330LHH pinout is detailed in the datasheet available at https://www.st.com/resource/en/datasheet/asm330lhh.pdf. The pinout includes pins for power supply (VDD, VDD_IO), ground (GND), I2C/SPI communication (SCL/SPC, SDA/SDI/SDO), and interrupt outputs (INT1, INT2). Refer to the datasheet for the complete pin assignment.

Hey Google, what can replace ASM330LHH?

The ASM330LHH can be replaced by the LSM6DSO, which is pin-compatible and shares the same LGA-14 package. However, the LSM6DSO is not AEC-Q100 qualified, so it is not suitable for automotive applications. For automotive-grade replacements, consider other AEC-Q100 qualified IMUs from STMicroelectronics, such as the ASM330LHHX if available. Always verify pin compatibility and specifications before replacement.

Is ASM330LHH the same as LSM6DSO?

No, the ASM330LHH and LSM6DSO are not the same, although they are both 6-axis IMUs from STMicroelectronics with the same LGA-14 package and pinout. The key difference is that the ASM330LHH is AEC-Q100 qualified for automotive use, while the LSM6DSO is not. The ASM330LHH also has a wider temperature range (-40°C to +105°C) and higher shock tolerance (10000 g).

What are the key specifications of ASM330LHH that engineers should know?

Engineers should know that the ASM330LHH is a 6-axis IMU with accelerometer full-scale ranges of ±2/±4/±8/±16 g and gyroscope ranges of ±125/±250/±500/±1000/±2000 dps. It operates from 1.71V to 3.6V, supports I2C and SPI, and has a noise density of 90 µg/√Hz (accel) and 4 mdps/√Hz (gyro). It is AEC-Q100 qualified, operates from -40°C to +105°C, and comes in an LGA-14 package.

What is the best STMicroelectronics equivalent for ASM330LHH?

The best STMicroelectronics equivalent for the ASM330LHH is the LSM6DSO, which is pin-compatible and shares the same LGA-14 package. However, the LSM6DSO is not AEC-Q100 qualified, so it is not suitable for automotive applications. For automotive-grade equivalents, consider the ASM330LHHX if available, or other AEC-Q100 qualified IMUs from STMicroelectronics.

Engineering reference data for ASM330LHH — comparison, design guidance, and compliance information.

Selection Guide

Choose the ASM330LHH when you need an AEC-Q100 qualified 6-axis IMU for automotive or industrial applications requiring high reliability, wide temperature range (-40°C to +105°C), and high shock tolerance (10000 g). If you do not need automotive qualification and operate in a narrower temperature range, the LSM6DSO is a cost-effective drop-in alternative. For cross-brand options, the ICM-42688-P offers lower noise but lacks AEC-Q100 qualification. The BMI270 is suitable for consumer applications but has lower shock tolerance. Always verify pin compatibility and register maps when substituting.

Comparison with Alternatives

Parameter	This Product	LSM6DSO	ASM330LHHX	ICM-42688-P	BMI270
Package	LGA-14	LGA-14	LGA-14	LGA-14	LGA-14
Brand	STMicroelectronics	STMicroelectronics	STMicroelectronics	TDK InvenSense	Bosch Sensortec
AEC-Q100 Qualified	Yes	No	Yes	No	No
Operating Temperature Range	-40°C to +105°C	-40°C to +85°C	-40°C to +105°C	-40°C to +85°C	-40°C to +85°C
Accelerometer Full-Scale Range	±2/±4/±8/±16 g	±2/±4/±8/±16 g	±2/±4/±8/±16 g	±2/±4/±8/±16 g	±2/±4/±8/±16 g
Gyroscope Full-Scale Range	±125/±250/±500/±1000/±2000 dps	±125/±250/±500/±1000/±2000 dps	±125/±250/±500/±1000/±2000 dps	±15.6/±31.2/±62.5/±125/±250/±500/±1000/±2000 dps	±125/±250/±500/±1000/±2000 dps
Noise Density (Accel)	90 µg/√Hz	90 µg/√Hz	90 µg/√Hz	70 µg/√Hz	80 µg/√Hz
Noise Density (Gyro)	4 mdps/√Hz	4 mdps/√Hz	4 mdps/√Hz	2.8 mdps/√Hz	2.8 mdps/√Hz
Supply Voltage	1.71V to 3.6V	1.71V to 3.6V	1.71V to 3.6V	1.71V to 3.6V	1.71V to 3.6V
Interface	I2C / SPI	I2C / SPI	I2C / SPI	I2C / SPI	I2C / SPI

Key Differentiators

AEC-Q100 qualified for automotive (vs LSM6DSO)
Wider temperature range (vs LSM6DSO)
Higher shock tolerance (vs BMI270)

Design Notes

Place a 100 nF decoupling capacitor close to the VDD and VDD_IO pins to filter high-frequency noise. Use a 1 µF capacitor on VDD for additional stability. Ensure the ground pins are connected to a solid ground plane to minimize noise. The LGA-14 package has a small footprint, so use appropriate solder stencil design to avoid solder bridging.

Mount the ASM330LHH near the mechanical center of rotation for accurate angular rate measurements. Avoid placing it near high-vibration sources or heat-generating components. Route I2C/SPI traces away from high-current switching traces to reduce electromagnetic interference. Keep the interrupt lines short and add pull-up resistors as needed.

Do not exceed the absolute maximum ratings, including supply voltage of 3.6V and shock of 10000 g. Ensure the SPI CS pin is properly pulled high for I2C operation. Configure the ODR and full-scale ranges correctly to avoid data clipping. Use the self-test feature during production to verify sensor functionality.