Memory & Structural Solutions
| Cat | Products Name | Price |
|---|---|---|
| AIMRSE-AIG-MSS-001 | Standard Embedded ePOP Storage Module | |
| AIMRSE-AIG-MSS-002 | Industrial-Grade Embedded eMMC Storage Module | |
| AIMRSE-AIG-MSS-003 | Integrated Embedded eMCP Multi-Chip Module | |
| AIMRSE-AIG-MSS-004 | High-Speed PCIe Gen4x4 Storage Module | |
| AIMRSE-AIG-MSS-005 | Wide-Temperature Industrial SPI NOR Flash Module | |
| AIMRSE-AIG-MSS-006 | Enhanced Industrial Embedded eMMC Module | |
| AIMRSE-AIG-MSS-007 | Compact Size Embedded eMMC Storage Module | |
| AIMRSE-AIG-MSS-008 | Enhanced Embedded ePOP Storage Module | |
| AIMRSE-AIG-MSS-009 | High-Performance Embedded ePOP Storage Module |
Precision Memory & Structural Solutions for AI Wearables
As the invisible architecture that defines both performance and comfort, our memory and structural solutions provide the robust foundation required for next-generation smart glasses. AIMRSE offers a specialized portfolio of ultra-compact, high-bandwidth memory modules and advanced mechanical components engineered to survive the rigors of daily use. From LPDDR5 modules that feed data-hungry Edge AI SoCs to lightweight titanium-reinforced frames with integrated thermal management, our solutions solve the critical balance between extreme durability and "weightless" ergonomics. Designed for seamless integration into high-density electronics, our structural and storage products enable designers to push the boundaries of what is possible in the AI wearable ecosystem.
Consult with our mechanical and storage engineers for custom frame designs, thermal simulations, and memory optimization.
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Product Overview
In the engineering of AI smart glasses, memory and structural integrity are the silent enablers of user experience. Memory modules must provide the massive bandwidth necessary for real-time video processing and AI inference, all while occupying a footprint small enough for temple-arm integration. Simultaneously, the structural frame must act as a sophisticated thermal radiator and a durable exoskeleton, protecting sensitive sensors while maintaining the aesthetic appeal of traditional eyewear. Our solutions are designed to eliminate the common trade-offs between performance and form factor.
- High-Bandwidth Storage: Ultra-thin LPDDR and UFS modules optimized for low-power SoC environments.
- Advanced Thermal Dissipation: Integrated graphite sheets and vapor chambers to prevent device overheating.
- Lightweight Structural Frames: Aerospace-grade materials including Titanium, TR90, and Carbon Fiber.
- High-Cycle Hinges & Interconnects: Precision mechanical joints and flex-PCBs tested for 20,000+ fold cycles.
By utilizing advanced materials science and high-density semiconductor packaging, AIMRSE helps manufacturers reduce the overall weight of smart glasses without sacrificing strength. Our structural solutions are tested for impact resistance, sweat corrosion, and long-term skin compatibility, ensuring that professional-grade wearables remain comfortable for a full 8-hour shift. Whether you are developing slim consumer lifestyle frames or ruggedized industrial HUDs, our memory and structural components provide the reliability and speed required for the most demanding AI applications.
Core Architectural Pillars
Our structural and storage portfolio is divided into four critical pillars, addressing the mechanical and data-flow challenges of high-performance wearables. Click below for detailed specifications:
Ultra-thin LPDDR4X/5 and UFS 3.1 storage for high-speed AI data processing.
Working Memory & Storage
Our memory solutions leverage multi-chip packaging (MCP) to combine high-speed LPDDR RAM and NAND flash in a single, ultra-slim BGA package. This reduces PCB space while providing the bandwidth required for 4K video and real-time SLAM.
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Integrated graphite, vapor chambers, and thermal gels for fanless cooling.
Thermal Management
We utilize aerospace-grade synthetic graphite with thermal conductivity up to 1500 W/mK. These solutions dissipate heat away from the user's temple, ensuring a maximum surface temperature delta of less than 3°C during peak AI tasks.
Check Cooling Metrics
Titanium and TR90 frames with integrated sensor mounts and wire-routing.
Frames & Ergonomics
Our structural designs prioritize mass distribution and facial ergonomics. By utilizing high-strength TR90 plastics and titanium reinforcements, we deliver frames that are 30% lighter than standard smart glasses while maintaining IP67 durability.
Review Material Data
Precision spring hinges and high-flex PCBs for reliable power/data flow.
Interconnects & Hinges
Our specialized spring hinges house high-flexibility circuit bridges, allowing power and data to flow reliably from temple to temple. Tested for over 20,000 opening/closing cycles to ensure lifelong reliability in consumer and industrial use.
Request Lifecycle ReportKey Features & Technical Advantages
Optimized Performance-per-Gram
Weight is the single biggest barrier to long-term wearable adoption. Our structural solutions are designed with a "performance-per-gram" philosophy, using finite element analysis (FEA) to remove excess material without sacrificing structural stiffness. This results in AI glasses that weigh less than 50g while housing a full suite of cameras, chips, and batteries.
Next-Gen Storage Bandwidth
Our memory modules support data transfer rates up to 6400Mbps, ensuring that the Edge AI SoC never starves for data during complex SLAM or hand-tracking tasks. By using high-density wafer-stacking technology, we provide up to 256GB of storage and 16GB of RAM in a footprint small enough to be completely hidden within a standard eyewear temple arm.
Industrial-Grade Reliability
Every frame and hinge assembly is tested for salt-fog resistance, perspiration corrosion, and extreme mechanical stress. Our structural components meet MIL-STD-810H standards for shock and vibration, ensuring that the sophisticated electronics inside are protected during accidental drops or usage in rugged industrial environments.
Rapid Design Customization
We provide a comprehensive "Mechanical SDK" that includes 3D CAD templates and wiring reference designs. This allows OEMs to rapidly customize the external look and feel of the glasses while utilizing our pre-validated internal structural layout, significantly shortening the time-to-market for new wearable products.
Ecosystem & Materials Compatibility
Our structural and memory solutions act as the physical and data-flow hub, ensuring all components work in perfect harmony within a unified frame.
Technical Parameters Comparison
Comparison of our core memory modules and structural materials. Custom dimensions and material blends are available upon request.
| Component Class | Specification / Material | Performance Metric | Weight / Thickness | Durability Rating | Typical Application |
|---|---|---|---|---|---|
| Memory (RAM) | LPDDR5 (8GB - 16GB) | 6400 Mbps Bandwidth | 0.65mm Z-Height | JEDEC Standard | High-End Vision AI |
| Storage (Flash) | UFS 3.1 (128GB - 512GB) | 2100 MB/s Sequential Read | 0.80mm Z-Height | ECC Protected | 4K Video Recording |
| Thermal Pad | Synthetic Graphite | 1500 W/mK conductivity | 0.05mm - 0.15mm | Non-aging | SoC Cooling |
| Frame Chassis | Titanium / Carbon Fiber | >450 MPa Tensile Strength | < 12g (Frame only) | MIL-STD-810H | Industrial AR Glasses |
Need 3D CAD files or memory power-profile charts?
We provide full hardware integration guides to ensure your assembly process is as efficient as our components.
Typical Application Scenarios
Our solutions enable the high-performance storage and durable comfort required for the diverse needs of the wearable industry:
Rugged Industrial AR
In heavy manufacturing and energy sectors, workers require headsets that can withstand accidental drops and exposure to sweat and oil. Our titanium-reinforced frames and ECC-protected memory ensure that critical mission data remains accessible and the hardware remains intact in even the harshest industrial conditions.
Consumer Lifestyle Assistants
For daily-wear AI glasses, weight and thermal comfort are paramount. Our advanced graphite cooling sheets prevent heat from reaching the skin, while our ultra-thin LPDDR modules allow for frames that are indistinguishable from standard fashion glasses, enabling all-day wear without fatigue.
High-Fidelity Content Creation
AR devices used for professional filming and 3D modeling require massive data bandwidth. Our UFS 3.1 storage solutions enable simultaneous 4K recording and AI-driven spatial anchoring, providing the high-speed data backbone needed for creative professionals in the metaverse era.
Case Studies
Solving Thermal Throttling in Slim AR Glasses
A consumer tech brand launched a pair of lightweight AR glasses that frequently shut down due to overheating when running SLAM and video translation simultaneously. The temple arms reached 45°C, causing significant user discomfort and reducing battery life by 40%.
The Solution: Hybrid Cooling + High-Efficiency Memory
AIMRSE replaced the standard thermal pads with our custom 0.1mm graphite vapor-spreaders. We also upgraded the memory to our low-power LPDDR5 modules, which reduced storage power draw by 15%. This hybrid approach redistributed the thermal load across the entire titanium frame, acting as a passive radiator.
Success Highlights
8°C Temperature Reduction
The temple surface temperature dropped from 45°C to a comfortable 37°C. The glasses achieved a 2-hour increase in continuous operation time, and thermal throttling was completely eliminated, allowing the device to maintain peak AI performance without interruption.
Why Choose Our Structural Products
Materials Science Leadership
We are pioneers in utilizing aerospace alloys and high-density memory stacking for wearables, ensuring your product leads the market in both speed and ergonomics.
Rigorous Lifecycle Testing
Our components undergo 20,000+ cycle hinge tests and 1.5-meter drop tests, providing the durability required for a consumer product to last for years, not months.
Integrated Supply Chain
By sourcing both memory and mechanical structures from AIMRSE, you ensure perfect hardware compatibility and a simplified logistics path for your assembly line.
Frequently Asked Questions
How does LPDDR5 improve AI glasses performance compared to older memory types?
LPDDR5 provides up to 50% more bandwidth than LPDDR4X while being more power-efficient. In AI glasses, this extra bandwidth is crucial for feeding the NPU with high-resolution image data for SLAM and object recognition. By reducing data bottlenecks, the system can run more complex AI models with lower latency and less power-induced heat, significantly improving the overall responsiveness of the AR interface.
Are your structural materials safe for users with sensitive skin?
Yes. All materials used in our frame chassis, including Titanium Grade 5 and TR90 plastics, are ISO 10993 certified for biocompatibility. They are hypoallergenic and resistant to perspiration, skin oils, and common cosmetic chemicals. We perform extensive 72-hour skin patch tests to ensure that our materials do not cause irritation even when worn during high-intensity physical activities.
What is the advantage of using a graphite sheet over a traditional copper heat sink?
Graphite sheets are much lighter and can be manufactured as thin as 0.05mm, making them ideal for the tight spaces inside eyewear temples. While copper is a good conductor, graphite has superior anisotropic thermal properties, allowing it to spread heat horizontally across a larger surface area very quickly. This prevents "hot spots" from forming near the user's skin and allows the entire frame to act as a passive radiator.
Can I request a custom frame color or branding for my structural solution?
Yes. We offer extensive ODM services including custom PVD (Physical Vapor Deposition) coatings for titanium parts and specialized dye injection for TR90 frames. We can accommodate specific brand colors, laser-etched logos, and unique surface textures (matte, gloss, or soft-touch) to match your company's aesthetic and branding requirements during the mass production phase.
How do you ensure the internal wiring doesn't break at the hinges?
We use a combination of precision spring hinges and specialized High-Flex FPC (Flexible Printed Circuit) bridges. These bridges are engineered with a specific "loop" geometry and material stack-up that distributes the mechanical strain across a wider area during folding. We test these assemblies in automated rigs for over 20,000 cycles to ensure that power and data signals remain stable for the entire lifespan of the product.
Related Products
Technical data represent typical values. As applications vary, we recommend consulting our technical team to ensure the best fit for your specific requirements.
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