AR & Electronics Integration for Diving Masks
Putting a display inside a dive mask is not a display problem. It is a systems problem: optics that must sit at a comfortable distance from the eye, electronics that must survive salt water and pressure, a battery that must not upset the balance of a mask sealed by soft silicone, and controls that must work through a cold, gloved hand. We treat AR integration as its own engineering discipline, because the failure modes do not overlap with ordinary mask design.
How We Approach AR Integration
- Optical stack placement — The viewing path is positioned relative to the eye and the mask geometry, not bolted to the outside of the frame. Comfortable, stable placement matters more than squeezing the module into the smallest possible space.
- Optical approach review — Transparent optical paths keep the diver's natural view open; opaque approaches turn the mask into a screen. We review the trade-off against your use case, brightness conditions and cost target before locking the architecture.
- Sealing architecture — Every penetration, seam and control interface is mapped as a potential leak path, then validated through repeated pressure cycling rather than a single immersion.
- Weight and balance budgeting — We set a front-frame mass budget early and hold components to it. Total weight is only half the issue; where the mass sits decides whether the skirt still seals.
- Control interface design — Operations are designed around wet, cold, gloved hands: physical affordances that can be found without looking, and logic that avoids deep menu trees underwater.
- Clarity under all conditions — Anti-fog treatment and internal airflow are engineered together with the optical path, so the display stays readable instead of fogging out mid-dive.
- Thermal and humidity behavior — A sealed mask is a closed, humid environment with a heat source inside it. Component behavior in that environment is validated, not assumed.
Toolchain & Validation
Structural design and DFM review, optical and mechanical tolerance analysis, sealing and pressure-cycle testing, immersion and fog performance testing, control operation testing with gloves, and abuse testing on the assembled unit.
What You Get
- Feasibility review: optical approach, sealing strategy, module options and weight targets against your cost
- Mechanical design and 3D modeling of the mask with integrated electronics
- Sealing architecture documentation and validation results
- Control interface logic proposal for underwater use
- Validation report covering pressure cycling, immersion and fog performance
- Handover files for mold design and pilot production
FAQ
Q: Do you design the display and optics, or only the mask around them?
A: Either. We can integrate to your specified module and optical supplier, or support module evaluation during feasibility and coordinate with suppliers to fit the mask architecture.
Q: Can electronics survive repeated pressure cycling?
A: That is the design target and the validation criterion. Sealing is treated as an architecture decision made at the start, not a gasket added at the end.
Q: How do you keep the display readable?
A: Two parts. Optical placement and brightness handle the viewing path, and our diving-category anti-fog work keeps the inner lens clear. On an AR mask, fog does not degrade the display — it removes it.
Q: Will the mask still be comfortable?
A: That is what the weight budget is for. Added mass on the front frame pulls on the silicone seal and can break it, so balance is engineered alongside hardware placement.
Q: At what stage should we bring you in?
A: Earliest is best. Sealing, weight and optical approach decisions made at concept stage cost far less to get right than the same decisions discovered during prototyping.
