Turn compute into
Tokens efficiently

A self-owned heterogeneous compute base with high-performance inference for leading open-source models and Agent-native optimization.
Continuously lower your cost per million Tokens with deterministic SLA for your applications.

Core Capabilities

From the hardware base to the inference engine, every layer is designed for Token production efficiency.

Hardware Layer

Heterogeneous Compute Base

NVIDIA serves as the primary tier (B300 with 288GB HBM per card), AMD / domestic GPU / NPU as the secondary tier, and legacy NVIDIA settles naturally into the economy tier. Three clearly divided tiers match hardware to workload characteristics.

Primary tier: frontier models / long context / tight SLO
Secondary tier: regular decode / batch inference
Economy tier: small-model assistance / elastic peak overflow
Model Layer

Full Model Coverage

Leading open-source models including DeepSeek, Qwen, GLM, Llama, and Kimi, covering MoE and multimodal architectures. Performance baselines and deployment matrices across card types and sizes ensure the best price-performance fit.

DeepSeek Qwen GLM Llama Kimi MoE Multimodal
Engine Layer

Deep Engine Optimization

Deep custom optimization on top of vLLM / SGLang / TensorRT-LLM. PD separation, KV Cache, continuous batching, speculative decoding, and multi-precision quantization work together to maximize throughput and minimize latency.

PD separation · Continuous batching · Speculative decoding
Quantization: adaptive FP8 / INT8 / INT4
Tiered KV Cache management & hit optimization
Continuous Optimization
Cost per million Tokens
High Hit Rate
KV Cache hits
SLA-Committed
TTFT / TPOT metrics
Multi-Architecture
Parallel scheduling & delivery

Technical Highlights

Differentiation built on verifiable engineering depth, not market narrative.

KV Data Plane

Agent-Native KV Data Plane

Purpose-built for Agent long sessions, high prefix reuse, and burst fan-out. Higher cache hit rates can cut effective compute cost by 80-90%, opening a significant cost gap over general-purpose inference.

Composition-independent KV cache blocks

Cache blocks are independent of request composition, so any prefix is reusable without per-request allocation.

Editable cache semantics

Supports cache updates after tool-call results and context injection without full recomputation.

Tiered KV storage

HBM → DRAM → NVMe → network storage pool, automatically tiered by access heat.

Global KV directory & affinity routing

Cross-node KV is addressable; requests are routed automatically to instances with cache hits.

Scheduling Layer

Cross-Architecture Tiered Scheduling

Routes requests in real time to the most economical hardware tier by request characteristics (context length, SLO, model size), minimizing per-token cost while guaranteeing SLA.

Primary tier

Frontier models · long context · tight SLO, served by NVIDIA B300 series

Secondary tier

Regular decode · batch inference on AMD / domestic GPU / NPU

Economy tier

Small-model assistance on legacy NVIDIA that settles naturally

Elastic tier

Peak overflow · burst fan-out with on-demand scaling

KV Plane

Cross-Architecture KV Plane

Lets KV state on different vendors' hardware perceive, migrate, and reuse each other. This is an area with no ready-made open-source answer today, and one of the hardest competitive moats to replicate.

Cross-architecture KV representation & conversion

A unified KV abstraction supporting cross-hardware storage and restoration

Cross-vendor KV transfer

KV migration channels between NVIDIA ↔ AMD ↔ domestic GPU

Cross-architecture cost model

Quantifies migration cost to decide whether migration beats recomputation

Cross-architecture consistency constraints

Numerical consistency validation to ensure equivalent output across migration

Productionization

Multi-Architecture Production Delivery

Teams that can run NVIDIA and non-NVIDIA hardware reliably on the same production system are extremely rare. From software-stack versioning to fault-domain isolation, every step has been production-verified.

Software-stack version triplet lock

Strict control of the driver · runtime · inference-engine version matrix to avoid compatibility risk

Portable weight formats

Convert weights once and deploy across architectures without duplicated engineering

Numerical consistency validation

Cross-architecture output alignment with quantization error within acceptable thresholds

Fault-domain isolation

Hardware failures across architectures do not propagate; a single-architecture anomaly never affects the whole service

Inference Engine Stack

From request intake to Token output, every layer has a clear optimization goal.

Request Layer
Intelligent Routing
Routes by context length, SLO, and model size
Scheduling Layer
Continuous Batching
Dynamic batching · PD separation · speculative decoding
Cache Layer
KV Data Plane
Tiered storage · global directory · affinity routing
Hardware Layer
Heterogeneous Compute
NVIDIA · AMD · domestic GPU/NPU
Inference Consultation

Contact us about inference solutions

Whether you need API access, private deployment, or deep technical collaboration, our team is ready to help. Tell us your workload characteristics and we will design the optimal solution.