Sweat Detector

Client Country     UK

services: industrial design|machine design|hardware development

firmware development|functional prototyping|packaging design

Project Background

In the realm of healthcare technology, non-invasive and real-time physiological monitoring techniques have increasingly garnered attention. With the rapid advancements in the Internet of Things (IoT) and big data technologies, personalized health management has gradually become an integral part of modern life. However, existing health monitoring devices often present issues such as inconvenience in wearing, low accuracy, or high costs. Therefore, we propose the project of a wearable Sweat Detector, aiming to provide users with a comfortable, accurate, and economical solution for health monitoring.

healthcare technology

Sweat Detector Solution

The wearable sweat-based biomarker detector utilizes advanced biosensor technology and intelligent algorithms to enable real-time monitoring and precise analysis of biochemical markers in human sweat. Our solution features the following:

  1. A wearable design that allows users to monitor their health anytime, anywhere;
  2. High-precision biosensors to ensure the accuracy of monitoring data;
  3. Intelligent algorithms for processing and analyzing monitoring data to provide personalized health recommendations;
  4. Wireless transmission technology for real-time data upload and remote management.

Project Process

Step 1

Sweat Detector Industrial Design

At the initial stage of the project, we conducted thorough market research and user needs analysis to determine the product’s appearance design and functional positioning. We emphasized the product’s aesthetics and practicality, while considering the user’s wearing experience and comfort. Regarding material selection, OPD Product Design chose biocompatible, flexible, and durable materials to ensure the product’s safety and durability.

Sweat Detector

Step 2

Sweat Detector Mechanical Design

Based on the industrial design, we proceeded with the mechanical structure design, including the size, shape, and connection methods of the product’s various components. Through meticulous mechanical structure design, we ensured the product’s stability and reliability while improving production efficiency.

Sweat Detector 1
Sweat Detector 2

Step 3

Sweat Detector Hardware Design

Hardware design is the core component of the product. We utilized advanced biosensor chips and microprocessors to achieve real-time monitoring and data processing of sweat biochemical markers. Additionally, we designed a wireless transmission module to enable real-time data upload and remote management. During the hardware design process, we focused on power consumption control and stability to ensure the product’s long-term stable operation.

Sweat Detector diagram

Step 4

Prototypeing and Testing

Based on the above designs, we successfully developed a prototype of the wearable sweat-based biomarker detector and conducted multiple tests. The prototype achieved the expected results in terms of wearing comfort, data acquisition accuracy, and data transmission stability. Simultaneously, we optimized and improved the product based on the issues identified during testing to better meet user needs.

motherboard

Sweat Detector Value

The introduction of the wearable sweat-based biomarker detector offers significant value to users:

 

  1. It provides real-time and accurate health data, enabling users to promptly understand their physical condition and prevent potential health issues;
  2. Through personalized health recommendations, it helps users improve their lifestyle and enhance their quality of life;
  3. It facilitates remote health management, allowing users to share their health status with family members and doctors;
  4. The wearable design ensures easy portability and usability, suitable for various occasions and demographics.
  1. A wearable design that allows users to monitor their health anytime, anywhere;
  2. High-precision biosensors to ensure the accuracy of monitoring data;
  3. Intelligent algorithms for processing and analyzing monitoring data to provide personalized health recommendations;
  4. Wireless transmission technology for real-time data upload and remote management.