# LSM6DSV320X

**Repository Path**: CoreMaker/LSM6DSV320X

## Basic Information

- **Project Name**: LSM6DSV320X
- **Description**: LSM6DSV320X
- **Primary Language**: Unknown
- **License**: Not specified
- **Default Branch**: main
- **Homepage**: None
- **GVP Project**: No

## Statistics

- **Stars**: 0
- **Forks**: 0
- **Created**: 2026-02-12
- **Last Updated**: 2026-05-17

## Categories & Tags

**Categories**: Uncategorized

**Tags**: None

## README

# LSM6DSV320X
LSM6DSV320X

# Overview
- **Name**: LSM6DSV80X-V1.0
- **MCU**: STM32H503CBT6
- **IDE**: STM32CUBEMX+KEIL


# Buy Link
[https://shop192352884.taobao.com/](https://shop192352884.taobao.com/)




# Image
<img width="1279" height="1021" alt="image" src="https://github.com/user-attachments/assets/24f7390f-466a-421f-a8db-75f78c60b801" />

<img width="1242" height="1761" alt="image" src="https://github.com/user-attachments/assets/e2abbeb6-a08b-4b54-a1d9-5350564db9b2" />

<img width="1240" height="1763" alt="image" src="https://github.com/user-attachments/assets/4a2bc847-08bb-41dc-b2a0-04bf966044b7" />

<img width="1240" height="1763" alt="image" src="https://github.com/user-attachments/assets/6bb9ab3a-374e-4947-b818-f8d8ac6028b0" />

<img width="1241" height="1764" alt="image" src="https://github.com/user-attachments/assets/71fce997-63c3-470c-967a-ab84626e6fb1" />



# Contact Information

- **Name**: Billy
- **交流群**: 925643491
- **Email**: a845656974@outlook.com
- **Phone**: +86 15622736378
- **CSDN Blog**: [Blog](https://blog.csdn.net/qq_24312945)
- **Video**: [Video](https://space.bilibili.com/26152390)



# Project Introduction
- **STM32H503_LSM6DSV320X_LIS2MDL_Project1**:陀螺仪LSM6DSV320X开发(1)----轮询获取陀螺仪数据
- **CSDN Blog**:[https://blog.csdn.net/qq_24312945/article/details/158503519](https://blog.csdn.net/qq_24312945/article/details/158503519)
  
LSM6DSV320X 是面向高强度运动与高冲击记录场景的一项重要升级。它通过低g与高g的高效覆盖，结合片上先进处理能力，可在持续运动追踪与强冲击事件捕获之间取得平衡，为需要获取高价值运动/冲击数据并进行深入分析的应用提供理想选择。无论是高强度运动追踪、冲击/跌落记录，还是对事件波形与动态细节的还原需求，LSM6DSV320X 都能提供稳定一致的测量表现与可用数据洞察。

The LSM6DSV320X represents an important upgrade for high-intensity motion and high-impact event recording scenarios. By efficiently covering both low-g and high-g acceleration ranges, together with advanced on-chip processing capabilities, it can achieve a balance between continuous motion tracking and strong impact event capture. This makes it an ideal choice for applications that require high-value motion/impact data acquisition and in-depth analysis.

Whether used for high-intensity motion tracking, impact/drop event recording, or restoring event waveforms and dynamic details, the LSM6DSV320X can provide stable and consistent measurement performance as well as valuable data insights.

- **STM32H503_LSM6DSV320X_LIS2MDL_Project2**:陀螺仪LSM6DSV320X开发(2)----上报匿名上位机实现可视化
- **CSDN Blog**:[https://blog.csdn.net/qq_24312945/article/details/158611568](https://blog.csdn.net/qq_24312945/article/details/158611568)
  
本文档详细介绍了如何使用匿名助手的上位机实现加速度计和陀螺仪数据的可视化显示。内容涵盖了加速度计和陀螺仪的工作原理、上位机通信协议、数据处理流程以及具体的代码实现。通过本文档，读者可以了解如何通过串口通讯协议将传感器数据发送到上位机，并进行实时的曲线显示和数据分析。

This document provides a detailed introduction to how to use the Anonymous Assistant upper-computer software to visualize accelerometer and gyroscope data. The content covers the working principles of accelerometers and gyroscopes, the upper-computer communication protocol, the data processing workflow, and the specific code implementation.

Through this document, readers can understand how to send sensor data to the upper-computer software via a serial communication protocol, and how to perform real-time curve display and data analysis.

- **STM32H503_LSM6DSV320X_LIS2MDL_Project3**:陀螺仪LSM6DSV80X开发(3)----基于 SFLP 输出欧拉角的中断驱动
- **CSDN Blog**:[https://blog.csdn.net/qq_24312945/article/details/158842549](https://blog.csdn.net/qq_24312945/article/details/158842549)
  
在现代的运动跟踪和姿态检测应用中，低功耗、高精度 的传感器数据融合处理变得越来越重要。LSM6DSV80X传感器集成了SFLP（Sensor Fusion Low Power）算法模块，可以在低功耗模式下实现六轴传感器数据的高效融合。SFLP模块通过处理加速度计和陀螺仪的数据，生成一个表示设备姿态的四元数，这为游戏、增强现实（AR）、虚拟现实（VR）等应用中的精准运动追踪提供了技术支持。在本文中，我们将深入探讨如何利用SFLP模块获取四元数数据，并分析其在实际应用中的优势和实现方法。

In modern motion tracking and attitude detection applications, low-power and high-accuracy sensor data fusion processing is becoming increasingly important. The LSM6DSV80X sensor integrates the SFLP (Sensor Fusion Low Power) algorithm module, which enables efficient fusion of six-axis sensor data in low-power mode.

The SFLP module processes accelerometer and gyroscope data to generate a quaternion representing the device attitude, providing technical support for accurate motion tracking in applications such as gaming, augmented reality (AR), and virtual reality (VR).

In this article, we will take an in-depth look at how to use the SFLP module to obtain quaternion data, and analyze its advantages and implementation methods in practical applications.

- **STM32H503_LSM6DSV320X_LIS2MDL_Project4**:陀螺仪LSM6DSV320X开发(4)----FIFO 读取陀螺仪数据
- **CSDN Blog**:[https://blog.csdn.net/qq_24312945/article/details/159126265](https://blog.csdn.net/qq_24312945/article/details/159126265)

本文介绍如何在 LSM6DSV320X 上配置 FIFO（Stream 模式 + Watermark），并在 FIFO 达到阈值后批量读出数据，通过 TAG 解析出陀螺仪样本并完成单位换算与输出。该方法适合连续采样、降低 MCU 读取开销的应用场景。

This article introduces how to configure the FIFO on the LSM6DSV320X in Stream mode with a watermark threshold, and how to batch-read data once the FIFO reaches the threshold. The gyroscope samples are then parsed according to the TAG information, converted into physical units, and output.

This method is suitable for continuous sampling applications where the MCU readout overhead needs to be reduced.

- **STM32H503_LSM6DSV320X_LIS2MDL_Project5**:陀螺仪LSM6DSV320X开发(5)----高G唤醒中断
- **CSDN Blog**:[https://blog.csdn.net/qq_24312945/article/details/159126965](https://blog.csdn.net/qq_24312945/article/details/159126965)
  
本文演示如何在 LSM6DSV320X 的 High-G 加速度计上配置 冲击/唤醒（HG Wakeup）事件检测：设置 High-G 采样率与量程、配置滤波链路、设置唤醒阈值与持续时间，并把事件映射到 INT1 引脚输出中断。最后在主循环中读取事件标志位，判断触发轴向并通过串口打印。

This article demonstrates how to configure impact/wakeup event detection, also known as HG Wakeup, on the High-G accelerometer of the LSM6DSV320X.

The configuration includes setting the High-G sampling rate and full-scale range, configuring the filtering chain, setting the wakeup threshold and duration, and mapping the event to the INT1 pin for interrupt output.

Finally, in the main loop, the event flag is read to determine the triggered axis direction, and the result is printed through the serial port.