End-to-end autonomous and controllable ODM R&D services

Real-life view of our professional R&D laboratory

Professional R&D laboratory showcasing a team of senior engineers ensuring autonomous and controllable technology.

Built on our proprietarySolution Platform R&D CenterandStructural Industrial Design CenterAchieve full-chain independent R&D spanning from bottom-level circuit design, PCB layout, and BOM development to complete product structural design and mold development, building a solid technological moat.

End-to-end in-house development · Full technology control

Achieve full technical autonomy without relying on third-party solutions. Independently handle everything from circuit design to structural development, ensuring efficient project delivery and consistent quality.

Multi-category coverage · Diverse scenarios

Covers ultralight laptops, business PCs, AI notebooks, Mini PCs, and all-in-one systems to meet diverse consumer and commercial needs across various scenarios.

Complete ODM Services · Fast Deployment

End-to-end services from product concept and ID design to mass production, efficiently supporting custom development and standard private mold projects to accelerate time-to-market.

Motherboard hardware and software R&D

Leveraging our in-house professional hardware R&D team, we achieve full-stack control over schematic design, PCB layout, and system integration. Deeply optimized for leading Intel and AMD computing platforms, our compact, high-density designs deliver rapid customization capabilities, ensuring robust performance and stability with a solid hardware foundation.

Real photo of the motherboard PCB

Schematic and High-Speed PCB

Independently design multi-layer PCB layouts with deep optimization for signal integrity and EMC performance. Supports compact, high-density designs to ensure a stable and reliable hardware foundation.

Power & Power Consumption Optimization

Custom high-efficiency power loops balance performance and battery life, delivering stable operation across wide temperature ranges for demanding industrial environments.

Customize Hardware Interfaces

Flexible expansion of industrial-grade ports—including Ethernet, serial, and Thunderbolt—enables rapid response to diverse requirements and precise adaptation across varied application scenarios.

BIOS Adaptation and BOM

Complete underlying BIOS adaptation and debugging; deliver an accurate BOM; optimize component selection and costs; ensure stable and controllable supply chain.

End-to-end debugging loop

Conduct in-house functional, power, and stability testing to quickly identify and resolve hardware issues, significantly shortening product iteration and time-to-market.

Technological self-reliance and controllability

Full-stack self-research from underlying hardware to upper-layer adaptation enhances product customization while ensuring technical independence and supply chain security.

Housing Structure Design

Enclosure Structural Design Drawing

As the core foundation for private ODM, we possess full-stack in-house capabilities spanning chassis stacking, precision structural design, and mass production validation. Our proprietary design approach enables ultra-slim, high-strength form factors while ensuring product reliability from the source, guaranteeing manufacturability and cost efficiency.

Chassis stacking and modeling

Balance internal layout to generate high-precision 3D structural drawings, achieving the perfect equilibrium between ultra-slim design and structural strength.

Precision Enclosure Design

Full structural design of A/B/C/D shells developed in-house. Precision-engineered hinges, latches, and gap tolerances ensure an exceptional grip feel and premium finish.

Efficient Heat Dissipation Development

Combines hardware power simulation to customize airflow, heat pipes, and fan solutions, effectively addressing heat and noise issues while enhancing stability.

Mockup and Reliability Verification

Output functional prototypes to conduct rigorous drop and hinge tests, and perform DFM analysis in advance to ensure structural stability and reliability.

Design for Manufacturing Optimization

Optimize assembly yield from the design stage, streamline manufacturing processes, reduce production costs, and ensure efficient, high-quality conversion of product designs into mass-produced items.

Closed-loop from concept to mass production

The motherboard hardware and structural teams collaborate in parallel, executing the standard ODM development process. Through concurrent engineering, we compress the R&D cycle to ensure efficient, high-quality project delivery and achieve end-to-end closed-loop management from requirement analysis to mass production.

EVT (Engineering Validation Test): The Foundation of Function and Structure

Validate hardware functionality logic and structural stacking feasibility, resolve core design bugs, complete the primary feature loop, and establish a prototype foundation.

DVT Design Verification: Comprehensive Reliability Assurance

Conduct comprehensive reliability testing—including high/low temperature, vibration, and aging—to validate extreme environmental adaptability and lock down the design version for mass production.

DFM Optimization: Ensuring High Yield in Mass Production

Evaluate manufacturability, optimize PCB layout and structural design to improve yield, reduce manufacturing costs, and ensure mass production efficiency.

R&D Process Flow

End-to-end R&D closed-loop process

Requirement Input
→
Define Assessment
→
Parallel development
→
Rapid Prototyping
→
EVT validation
→
DVT verification
→
Import Mass Production

Professional laboratory ensures reliability

We operate dedicated hardware and structural reliability labs to conduct rigorous, end-to-end validation before product shipment. From core components to full-unit performance, every stage is strictly verified to ensure each device delivered to users achieves peak stability and durability.

Professional Laboratory Equipment

Equipped with internationally certified testing equipment, our lab simulates extreme conditions ranging from freezing to high temperatures, ensuring product stability across all operating scenarios and providing a solid scientific basis for quality assurance.

Hardware Performance Limit Test

Covers motherboard power consumption, signal integrity, and EMC testing. Validates hardware stability and anti-interference capabilities under extreme conditions through high/low temperature cycling and 7×24-hour burn-in testing.

Structural Strength and Durability Validation

Undergo drop, twist, squeeze, and hinge durability tests (exceeding 2 million cycles), along with shell abrasion resistance testing. These simulate daily collisions and wear to ensure a robust, long-lasting chassis.

End-to-end comprehensive system validation

Rigorous testing across all scenarios—from work to entertainment—verifies cooling efficiency, battery life, and port durability (over 5000 cycles), ensuring a balanced, consistent experience.

Deliver value to customers

Choose us for superior solutions and a reliable partner. We ensure your business success from design to mass production delivery with end-to-end support.

01 solution is controllable

Core hardware and structure are kept in-house; project documentation and iteration schedules remain under full control, ensuring complete ownership of product definition and development.

02 Flexible Customization

Supports deep modifications to motherboard circuits and shell design, offering highly customized private mold development services tailored perfectly to your unique application scenarios.

03 cycle is faster

The Hardware and Structure teams collaborate efficiently internally, significantly reducing cross-departmental communication costs and shortening development cycles to gain a market advantage.

04 has lower mass production risk

Implement DFM pre-assessment at the design stage to proactively eliminate manufacturing risks, ensure production yield, and reduce costs and risks associated with mass production.

05 continues to iterate

Rapidly close internal loops on mass production issues, respond efficiently to market feedback, and continuously support feature upgrades and iterative optimization to maintain product competitiveness.