OEM/ODM High-Performance Computing Factory & Exporters

Bespoke AI GPU Servers, Motherboard Engineering, PCIe Switches, and High-Speed Signal Interconnections for Global Datacenters and Hyperscale Infrastructure.

Leading the Vanguard of AI Infrastructure Engineering

AI Server Technology Co., Ltd. delivers high-performance compute nodes tailored to solve the scaling challenges of modern neural network workloads.

Company Profile:

AI Server Technology Co., Ltd. is a professional manufacturer and solution provider specializing in AI computing infrastructure. We focus on the design, development, and production of high-performance servers, PCIe switches, GPU baseboards, motherboard solutions, and retimer boards.

Our products are widely used in AI training, machine learning, high-performance computing (HPC), cloud data centers, and enterprise-level computing environments.

With strong R&D capabilities and flexible OEM/ODM services, we are committed to delivering reliable, scalable, and high-efficiency AI server solutions for global customers.

Main Products:

  • AI Servers
  • GPU Servers
  • PCIe Switch Systems
  • Server Motherboards
  • GPU Baseboards
  • Retimer Boards

Application Areas:
Artificial Intelligence, Deep Learning, HPC, Cloud Computing, Data Centers

High-Performance Computing hardware illustration

Why Partner With Us?

Our custom hardware designs minimize latency bottlenecks and maximize compute density. Our production lines conform to stringent reliability test matrices: High-Temperature Operating Life (HTOL), Signal Integrity (SI) sweeps, and Electromagnetic Interference (EMI) suppression testing.

Through our established partnerships with global chip makers, we secure critical silicon allocations, ensuring our customers experience stable product lifecycles and uninterrupted hardware supply.

15+

Years R&D Experience

200+

Patented Technologies

50+

Global Partner Countries

99.98%

System Integration Reliability

HPC & AI Computing Industry Dynamics

Analyzing the architectural shifts shaping the future of enterprise compute infrastructure.

The Rise of Ultra-Dense LLM Clusters

The transition toward large language models (LLMs) requires dense GPU cluster environments. As parameter sizes swell, single-node configurations are giving way to scale-out topologies connected via NVLink and High-Speed Ethernet. Standard server form factors struggle under the thermal loads of these setups, mandating custom backplanes and PCIe switch cards built for sustained throughput.

Liquid Cooling Transition (Direct-to-Chip)

With GPU TDP exceeding 700W, traditional air cooling has hit its physical limits in modern data centers. The industry is moving rapidly toward direct-to-chip (D2C) liquid cooling and full immersion systems. As a key OEM partner, we build custom chassis configurations that support quick-disconnect manifolds, leak-detection telemetry, and direct-contact cold plates designed for the hottest nodes.

PCIe Gen 5.0/6.0 and CXL Integration

Computing latency demands the removal of bus bottlenecks. The integration of PCIe Gen 5.0 and the looming release of PCIe Gen 6.0 demand impeccable signal integrity designs. Memory pooling via Compute Express Link (CXL) is redefining resource provisioning, enabling hosts to access shared pools of memory dynamically with low latency and high bandwidth.

Global Enterprise Procurement Requirements

Deciphering the critical requirements and operational checklists that direct hardware procurement decisions.

For procurement officers, hardware architectures are evaluated through a multidimensional lens of reliability, security, and supply chain control. Enterprise environments demand hardware platforms that minimize Total Cost of Ownership (TCO) while offering robust resilience against service disruptions.

1. Security and Firmware Autonomy (Root-of-Trust)

Enterprise datacenters cannot rely on closed-loop proprietary firmware that leaves them vulnerable to security blind spots. OpenBMC (Open Baseboard Management Controller) compliance has transitioned from a preference to a strict mandate. We configure server motherboards with physical Root-of-Trust (RoT) cryptographic chips, guaranteeing secure boot cycles, cryptographic validation of system bios, and real-time out-of-band security management.

2. Modularity and System Upgradability (L10 vs L11 Integration)

Operational flexibility depends on how modular the design is. By providing customizable motherboard solutions, PCIe switch structures, and modular power supply chassis, we offer global procurement teams the choice of Level 10 (L10) systems, which include pre-tested barebone assemblies, or Level 11 (L11) systems, which are fully integrated racks. This speeds up deployment times in hyper-scale datacenters.

3. Supply Chain Traceability and Long Life Cycles

Sourcing raw capacitors, multi-layered PCBs (up to 20 layers for high-speed signals), and high-grade low-loss dielectrics requires a robust supply chain. We maintain dual-source component configurations and trace all incoming silicon. This guarantees a guaranteed minimum hardware lifespan of 5 to 7 years, protecting capital expenditures against premature end-of-life cycles.

Server deployment motherboard layout diagram

Integrated Solutions for Enterprise Computing

Scalable architectural designs tailored for hyperscale, industrial, and clinical enterprise workloads.

Deep Learning clusters

High-density 8-GPU layouts featuring custom PCIe switch systems. Designed specifically for distributed LLM training, reinforcement learning, and high-frequency model checkpointing with redundant multi-kilowatt power architectures.

Edge Inference Nodes

Rugged, compact compute systems engineered for low latency at the edge. Optimised for autonomous vehicle telemetry, computer vision setups, and remote industrial sensor integration.

Scientific Computing

High-density CPU clusters paired with FPGA and GPU accelerators. Ideal for genomics research, molecular dynamics modeling, meteorological forecasting, and financial risk simulations.

Hyperscale Cloud Nodes

Open Compute Project (OCP) compliant rack configurations optimized for virtualization density. They feature multi-tenant resource containment and high-speed PCIe Gen 5 networking interfaces.

Localized Technical Support & Global Regulatory Compliance

Operational peace of mind secured through local expertise, rigorous certifications, and global spare distribution.

Exporting high-performance compute hardware to markets like North America, Europe, and the Asia-Pacific region requires compliance with complex international regulatory frameworks. AI Server Technology Co., Ltd. ensures that all manufactured units ship with fully validated compliance documents, preventing customs delays and regulatory audits.

Regulatory Certifications: Our product lines undergo testing at accredited facilities to secure CE, FCC, RoHS, REACH, UL, and VCCI markings. We guarantee our motherboards, power supplies, and logic modules conform to local safety, signal emissions, and hazardous material standards.

Global Support Infrastructure: We provide Tier 3 hardware engineering support directly to enterprise datacenter teams. Through localized warehousing in key logistic hubs, we maintain a rolling stock of spare parts, replacement motherboards, PCIe switch systems, and hot-swappable power supplies. This allows us to offer 24-to-48 hour hardware replacement services, minimizing downtime for critical workloads.

Technology Roadmap & Future Outlook

A forward-looking view into our upcoming innovations and hardware milestones.

To keep our partners ahead of the curve, our engineering teams are developing next-generation compute form factors. Below is a summary of the key initiatives driving our current R&D pipeline:

PCIe Gen 6.0 Architecture (PAM4 Signaling)

We are currently designing and testing motherboards that support PCIe Gen 6.0, transitioning from NRZ to PAM4 signaling. This upgrade doubles the data rate per lane while requiring advanced board materials (such as Megtron 8) to mitigate insertion loss and signal distortion over longer trace routes.

OCP Accelerator Module (OAM) Form Factors

In addition to traditional PCIe form factors, we are expanding our portfolio of OCP-compliant accelerator cards. This design simplifies physical component installation and allows scaling to multi-GPU arrays using standard layouts.

Sustainability & PUE Optimization

We target a Power Usage Effectiveness (PUE) below 1.15 through layout redesigns. By placing components closer together to shorten trace paths, optimizing VRM power conversions, and integrating smart fan controls, we minimize parasitics and heat generation inside the chassis.

Technical FAQ & Engineering Documentation

Answering technical questions regarding custom server motherboards, signal integrity, and ODM processes.

Q: How does AI Server Technology Co., Ltd. maintain signal integrity on PCIe Gen 5.0 tracks?
A: We utilize low-loss dielectrics like Panasonic Megtron 6 and Megtron 8, combined with back-drilling techniques on high-speed vias. Our engineering workflow includes pre- and post-layout simulations using ANSYS HFSS to control trace impedance and minimize cross-talk and insertion loss.
Q: What custom BIOS/BMC firmware options are supported?
A: We offer custom BIOS options based on AMI Aptio V and open-source Coreboot platforms. For remote management, we provide standard ASPEED AST2600 controllers with custom-compiled OpenBMC or proprietary firmware interfaces that support Redfish RESTful APIs.
Q: When are PCIe Retimer Boards needed in GPU configurations?
A: PCIe Gen 5.0 signals attenuate quickly over standard FR4 and low-loss PCB substrates. When layout routing between the root complex and the endpoint exceeds 6-8 inches, retimers are integrated to clean up signal jitter and restore eye margin metrics, ensuring reliable data paths.
Q: What is the typical lead time for custom OEM/ODM motherboard projects?
A: Development cycles run from 12 to 24 weeks. This includes schematic capture, layout optimization, simulation sweeps, prototype production (alpha run), compliance testing, and pilot production (beta run) before transitioning to volume manufacturing.
Q: Can your server chassis adapt to custom liquid-cooling quick-connect designs?
A: Yes, our mechanical designs are modular. We customize internal structures, mounting plates, and rear cutouts to support standard quick-disconnect fittings, and dry-break couplers, matching your existing datacenter CDU and loop parameters.