Epicue provides a low-cost heat stress management solution specifically for workers in high-heat environments. This system utilizes continuous epifluidic sweat monitoring to make tangible the felt heat experienced by individuals. The technology aims to mitigate risks associated with heat-related illnesses and productivity loss in industries like construction.
Funding
Funding not disclosed
Founders
Product
Problem
Workers in high-heat environments, particularly in the construction industry, face a significantly elevated risk of heat-related illnesses and death. High ambient temperatures contribute to a substantial percentage of accidents, leading to productivity loss and economic burden. Existing methods for monitoring heat stress are often inadequate for providing real-time insights into an individual's physiological response.
Solution
Epicue offers a low-cost, wearable solution for continuous heat-stress monitoring, leveraging epifluidic sweat analysis. The device detects key sweat biomarkers, providing real-time alerts to workers in high-heat environments, enabling proactive intervention and improved safety. By continuously monitoring an individual's response to changing environmental conditions, Epicue aims to provide a more specific understanding of how the body reacts to heat. This allows for timely adjustments to work practices, hydration, and cooling strategies, mitigating the risk of heat-related incidents. The device is designed to be sweat-powered, further reducing operational costs and increasing accessibility.
Target Audience
The primary target audience includes workers in high-heat environments, particularly those in the construction industry, as well as employers and safety managers responsible for ensuring worker safety and preventing heat-related illnesses.
Features
- Continuous monitoring of sweat biomarkers via epifluidic technology.
- Real-time alerts for early detection of heat stress.
- Wearable, low-cost design for accessibility and ease of use.
- Sweat-powered operation, eliminating the need for external power sources.
- Data-driven insights into individual physiological responses to heat.