NVIDIA GPU Acceleration Built-in

Compute engineered with NVIDIA H100.

veltneon uses NVIDIA's hardware and software stack — from Tensor Core GPUs to cuDNN, TensorRT, and Triton Inference Server — to scale high-throughput digital asset rendering.

Real NVIDIA H100 Server Racks in veltneon Data Center

NVIDIA TensorRT Acceleration

Diffusion model core layers compiled with TensorRT to optimize execution paths, achieving up to 4x throughput boosts and sub-second generation latencies.

Triton Model Orchestration

All user request streams handle dynamic batching queues and multi-GPU concurrent model execution powered by NVIDIA Triton Inference Server.

Hopper H100 Compute Mesh

A robust, high-performance GPU cluster utilizing NVIDIA H100 and A100 Tensor Cores with custom FP8 and FP16 precision runtime pipelines.

CUDA Parallel Custom Kernels

High-speed custom kernel adjustments compiled in CUDA 12 for attention computation, image resizing, and layout composition maps.

TensorRT-LLM Text Encoders

Multimodal text encoders (CLIP ViT-L and T5-XXL) run optimized on H100 Tensor Cores, parsing natural language descriptions in less than 15ms.

cuDNN Denoising Pipeline

Deep neural network primitives handle low-level convolution and matrix multiplications in diffusion steps, ensuring noise resolution in under 8 seconds.

Cluster Topology

Multi-GPU DGX Interconnect

Our infrastructure groups clusters of 8x NVIDIA H100 GPUs using high-bandwidth 900 GB/s NVLink connections. Dynamic traffic is balanced at the edge via InfiniBand switch adapters, preventing data bottlenecks.

NVLink: Links internal DGX GPU cores at 900 GB/s bidirectional throughput, reducing device-to-device latent memory copy overhead to near 0.
Load Balancer (InfiniBand Switch)DGX H100 Node ADGX H100 Node BNVLink Loop (900 GB/s Interconnect)

FP8 COMPRESSION ALLOCATION SPEC

FP16 Precision (16-bit float)Memory: 24.2 GBQuantized (FP8 Transformer Engine)FP8 Precision (E4M3 / E5M2 Formats)Memory: 12.1 GB (-50%)
Weight Quantization

FP8 Mixed-Precision Scale

Standard image generation loads massive floating point arrays, straining GPU memory limits. By compiling weights using the FP8 format (storing exponents and mantissas in 8 bits), we cut active VRAM utilization in half.

  • E4M3 Format: Used in forward passes to preserve precision.
  • E5M2 Format: Utilized in scaling parameters for higher dynamic range.
Model DAG

Inference sequence orchestrator.

How Triton Inference Server groups multi-model execution threads sequentially in less than 2 seconds.

1. Safety Check

Prompt filtered against NSFW/IP embeddings

2. Text Encoder

CLIP & T5 translate string to latent vectors

3. Denoising

H100 cores run 1-step Lumen-V2 loops

4. VAE Decoder

Latent grid decoded to high-fidelity pixels

5. Watermark

IP tracking injects subtle signature

CUDA Optimization

CUDA Parallel Attention Kernels

Standard diffusion pipelines spend over 40% of their run cycle in attention calculations. We compiled custom FlashAttention CUDA kernels optimized for Hopper's shared memory architecture.

FlashAttention-2
Optimized matrix tiling
Warp Scheduling
98% warp occupancy
CUDA Grid Coordinate Map
System RAMCapacity: 512 GBVRAM CacheSwap: 25msActive GPU RegisterWeight Executing
LoRA Caching

Zero-latency weight swapping

Loading style weight modules (LoRAs) dynamically usually stalls active render queues. We use a three-tier weight cache where inactive styles reside in system memory and pre-fetch dynamically to VRAM.

Direct VRAM Preloading 25ms Swap latency
Edge Upscaler

Edge Neural Super-Resolution

Instead of rendering full 4K images on expensive centralized DGX nodes, veltneon renders at a 1024x1024 base resolution, then uses cuDNN-accelerated VAE decoders deployed directly on regional CDN nodes to upscale to crystal-clear 4K.

Centralized GPU Node

Outputs raw latent layers at 1024x1024. Lowers core compute duration to under 0.8 seconds, optimizing server load.

Edge CDN Node

Loads cuDNN VAE models to scale assets to 4096x4096px, applying sharp texture restoration parameters.

NVIDIA-Powered Inference Pipeline

How veltneon routes prompts to Hopper silicon blocks in real time.

01

TensorRT-LLM Encoders

CLIP & T5 text weights optimized for real-time prompt parsing under 15ms.

02

Triton Orchestrator

Dynamic batching groups parallel request threads into unified GPU lanes.

03

H100 TensorRT Engine

Quantized FP8 diffusion loops execute denoising cycles on hardware in under 2 seconds.

04

Optimized Stream

Progressive visual preview outputs delivered back to client applications instantly.

Production Stack

veltneon & NVIDIA Integration Layer.

Interface Client
React 19 · TanStack Start · Real-time Progressive Streams
Orchestration Gateway
Cloudflare Edge Nodes · Dynamic Load Balancers
Inference Server
NVIDIA Triton Inference Server · Dynamic Batching
Optimized Engines
NVIDIA TensorRT-LLM · TensorRT (SDXL / Flux Adapters)
Hardware Infrastructure
NVIDIA H100 Tensor Core GPUs · CUDA 12.2 · cuDNN 9.1

Tensor Profiling

Execution metrics and matrix allocation.

Weight Optimization
Weight Optimization
Tensor Map Allocation
Tensor Map Allocation
Dynamic Latent Matrix
Dynamic Latent Matrix
Real-time object detection and captioning overlay powered by NVIDIA cuDNN

Moderation Layer

Real-time safety filtering and prompt checks.

Our content safety models run in parallel on H100 compute nodes. By leveraging Triton Server multi-model execution, we moderate prompts and images concurrently, ensuring full safety without adding pipeline latency.

Deploy on accelerated infrastructure

Get started with our API keys to run prompts directly through Triton inference nodes.

Talk to a solutions engineer

Running on world-class infrastructure

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