Veltron Veltron

Custom OEM Switch Manufacturer & Factory

High-Performance Enterprise & AI Compute Networking Solutions

14+
Years of Industry Expertise
3,800+
Factory Area (Sq Meters)
168+
Dedicated R&D Engineers
$18M+
Annual Export Revenue

Architecting the Backbone of Next-Gen Data Centers

The global networking landscape is undergoing a massive paradigm shift. Driven by hyper-scale cloud deployments, high-performance computing (HPC), and artificial intelligence workload requirements, traditional networking topologies are no longer sufficient. To support latency-sensitive data ingestion and model training clusters, enterprises require dedicated, custom-tailored switching solutions. Standard commercial off-the-shelf (COTS) switches often fall short due to fixed firmware configurations, rigid thermal layouts, and sub-optimal hardware-level customizations.

"As data rates transition rapidly from 100G/200G to 400G and 800G, the optimization of network switches at the physical and ASIC firmware level is crucial. OEM/ODM switch custom design provides the exact hardware-software integration required for hyperscale environments."

Veltron Computing Technology Co., Ltd. bridges this gap by acting as a leading custom OEM switch manufacturer and factory. With 14 years of industrial expertise, we specialize in developing customized layer 2/layer 3 Ethernet switches, high-speed InfiniBand switches, and RoCE v2 (RDMA over Converged Ethernet) network adapters that serve as the foundation of modern high-performance cloud networks. Our custom switches are engineered to maximize throughput, minimize packet loss, and deliver predictable tail latency for dense compute clusters.

Advanced OEM Switch Manufacturing Capabilities

Established in 2016 in Shenzhen, China, Veltron Computing Technology Co., Ltd. has grown to operate a state-of-the-art manufacturing facility covering over 3,800 square meters. Our production plant is equipped with modern assembly lines, dedicated signal integrity laboratories, thermal simulation chambers, and automatic optical inspection (AOI) machines.

To guarantee absolute operational reliability, we employ 56 dedicated quality control personnel who enforce a multi-stage Quality Assurance (QA) protocol. Every switch chassis, ASIC chip, and transceiver port undergoes rigorous thermal stress, signal attenuation, and long-term burn-in testing before leaving the factory floor.

Supported by 8 years of export experience and strategic alliances with over 1,200 supply chain partners, we ensure that critical components like switching silicon, multi-layer PCBs, and power units are consistently available. This robust ecosystem enables us to handle high-volume demands while launching more than 85 new hardware and software upgrades annually.

Strategic Supply Alliances
Over 1,200 verified tier-one component suppliers globally to guarantee consistent hardware sourcing and competitive lead times.
168-Engineer R&D Core
Dedicated research divisions optimizing hardware layout, cooling design, ASIC configuration, and SONiC OS integration.

Global Enterprise Procurement Requirements & Critical Challenges

Procurement directors and network architects face distinct challenges when selecting switching hardware for multi-region operations. High-density edge nodes, diverse data center architectures, and distinct regulatory environments create complex criteria.

Hyperscale Cloud Operators
Require disaggregated bare-metal hardware. Open Network Install Environment (ONIE) compatibility and seamless integration with Software for Open Networking in the Cloud (SONiC) are mandatory to avoid vendor lock-in.
High-Frequency Trading
Demand sub-microsecond, cut-through packet forwarding latency. Even nanosecond improvements in packet routing can provide a competitive edge in volatile financial execution environments.
Telecommunications
Require ruggedized chassis, DC power modules, advanced SyncE (Synchronous Ethernet), and IEEE 1588v2 Precision Time Protocol (PTP) for accurate packet synchronization across cell towers.

Veltron addresses these diverse needs through our flexible OEM/ODM system. We allow clients to choose the switching silicon (such as Broadcom Trident/Tomahawk series or Intel Tofino), select physical connector types (RJ45, SFP+, QSFP28, QSFP-DD, OSFP), optimize localized power solutions, and load custom firmware to match their internal network operating systems.

Macroeconomic Industry Solutions & Specifications

Modern networks must scale efficiently across different operating environments. Below is a structural technical analysis comparing custom switch configurations optimized by Veltron for major macroeconomic solutions.

Application Scenario Silicon Architecture Interface Standard Software Platform Key Network Protocols
AI & Deep Learning Broadcom Tomahawk 4 / 5 400G OSFP / 800G QSFP-DD SONiC / Bare-Metal OS RoCE v2, PFC, ECN, RDMA
Cloud Computing Datacenter Broadcom Trident 3 / 4 25G SFP28 / 100G QSFP28 ONIE, Open Network Linux VXLAN, EVPN, BGP, LACP
Carrier Edge & 5G Marvell Prestera / Teralynx 10G SFP+ / 25G SFP28 Custom Linux SDK SyncE, IEEE 1588v2 PTP, MPLS
Smart Industry / PoE Realtek / Microchip RTL 1G RJ45 / PoE+ (IEEE 802.3at) Proprietary Layer 2 Managed IGMP Snooping, VLAN, MSTP

Technical Implementation: AI Interconnect Networks (RoCE v2)

For AI workloads, traditional TCP/IP networks introduce unacceptable latency and processing overhead. Veltron's custom AI-optimized switches support RDMA over Converged Ethernet (RoCE v2), enabling direct memory transfers between server nodes without involving the host CPUs. Our custom switches leverage Priority Flow Control (PFC) and Explicit Congestion Notification (ECN) to guarantee loss-free fabric transport, providing a robust architecture for large language model (LLM) training and inference.

Technical Roadmap & Future Outlook (2025–2030)

The networking industry is on the verge of transitioning from electrical to optical interconnect developments. As port speeds approach 1.6T and individual silicon throughput surpasses 51.2 Tbps, current hardware models encounter severe physical limitations.

Co-Packaged Optics (CPO)

Traditional pluggable optical transceivers face challenges with signal loss at high frequencies. Veltron's R&D division is actively testing Co-Packaged Optics (CPO) prototypes. By mounting optical engines directly onto the substrate alongside the switching silicon, we can reduce overall power consumption by up to 30% and significantly improve thermal management.

Silicon Photonics Integration

We are investing in Silicon Photonics research to replace traditional copper-based transceivers. Integrating optical circuits directly onto silicon chips enables faster data transfers, reduced heat generation, and much lower latency, paving the way for sustainable 1.6T networking components.

Intellectualized Self-Healing Network Operating Systems

Future network administration will increasingly rely on automated control planes. Veltron is working with open-source communities to integrate telemetry frameworks directly into custom SONiC configurations. By streaming real-time queue states, buffer utilization metrics, and physical lane conditions, our switches enable central orchestrators to proactively bypass network congestion before it impacts latency.

Reliability Verification & Global Trade Compliance

Enterprise-grade switches represent the heart of physical network infrastructure. A failure at the core or aggregation layer can lead to costly downtime. To manage this risk, Veltron implements a comprehensive testing process for all customized hardware designs.

5-Stage Hardware Verification
Includes EVT (Engineering Verification), DVT (Design Verification), PVT (Production Verification), Mass Production testing, and final quality control checks.
Regulatory Compliance
Our systems carry international certifications including CE, FCC, RoHS, UL, and VCCI, facilitating seamless deployment across Europe, North America, and global markets.
Global Export & Support
With 8 years of export experience, we manage global delivery processes and coordinate with local engineering partners to assist with on-site deployment.

Our Quality Control department employs 56 specialists who track the journey of every switch from components to final testing. Using high-frequency oscilloscopes and traffic generators, we verify signal integrity on 112G SerDes lanes to ensure packet transmission is stable under full load.

Q: What custom options do you offer for OEM switches?
We offer custom modifications for every layer of the hardware and software stack. This includes customized physical layouts (chassis, color, front-panel ports, power supplies, fans), component configurations (selecting Broadcom, Marvell, or Intel ASICs), and software integration (pre-loading ONIE, custom network operating systems like SONiC, or proprietary Layer 2/3 configurations).
Q: How do your switches support AI cluster interconnects?
Our AI-optimized switches support RoCE v2 (RDMA over Converged Ethernet) and InfiniBand, enabling low-latency, high-bandwidth interconnects between GPU nodes. We configure specific ASICs to support PFC and ECN, which prevents queue overflow and packet loss during large-scale model training.
Q: What is your typical lead time and MOQ for custom switch designs?
For existing hardware designs with custom firmware or branding modifications, lead times generally range between 4 to 6 weeks. For brand-new hardware designs (ODM), it typically takes 12 to 16 weeks to progress from initial design specs to physical prototype verification. Minimum Order Quantities (MOQ) depend on the scope of customization.
Q: How do you ensure signal integrity at high speeds (400G and 800G)?
At high data rates, copper PCBs can suffer from high signal attenuation. We use advanced high-speed PCB layouts, premium low-loss dielectric laminates, and optimize routing designs for 112G SerDes lanes. Every high-speed switch undergoes thorough signal integrity testing and Bit Error Rate (BER) analysis during the design and manufacturing stages.