Osmo is a hydration concept developed by ArtCenter College of Design student Yash Ghule for runners. The system consists of three connected components: a wearable device, a hydration bottle, and a companion mobile application. The wrist-worn device monitors sweat rate, temperature, humidity, and drinking behavior during activity. Feedback is delivered through haptic vibration and light indicators rather than a screen. The system is designed to provide hydration guidance while minimizing distractions during a run.
The bottle incorporates an adjustable mixing mechanism that allows users to change the ratio of water and electrolytes during use. A physical slider controls the mixture without requiring additional containers or supplements. Data collected by the wearable is integrated with the companion app, which is used for setup and post-run review. The application provides hydration information and performance insights after activity.
Adaptive Hydration Systems
Osmo is Comprised of a Smart Bottle with a Wearable Tracker
Trend Themes
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Screenless Performance Feedback — Haptic cues and light indicators create opportunities for low-distraction fitness interfaces that guide athletes without competing for visual attention.
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Personalized Electrolyte Delivery — Adjustable fluid mixing points to a new class of sports hydration products that tailor electrolyte intake in real time based on environmental and biometric data.
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Sweat-responsive Wearables — Biometric monitoring tied to sweat rate, temperature, and humidity enables more precise activity support across endurance training, recovery, and heat-risk management.
Industry Implications
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Sports Technology — Connected hydration systems expand the market for intelligent training tools that combine sensing, feedback, and performance analytics into integrated athlete ecosystems.
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Wearable Devices — The use of subtle physical feedback highlights potential for wearables that prioritize context-aware coaching over screen-heavy interaction models.
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Functional Beverages — Dynamic mixing mechanisms introduce possibilities for beverage platforms that shift from static formulations to adaptive nutrition during exercise.