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Production Inference

Serve any LLM to millions of users at sub-10 ms TTFT.

Getting a model to work in a notebook is easy. Keeping it fast, cheap, and available when 50,000 users hit it simultaneously is hard. CogniCloud's inference stack combines continuous batching, KV-cache reuse, speculative decoding, and a global edge network so your users always get the first token in under 10 milliseconds.

<10ms

Global p99 time-to-first-token

1,847

Tokens per second per GPU

94%

Average cache-hit ratio

<2 s

Cold start from scale-to-zero

The Challenge

Why this is hard.

Naive inference deployments fail at scale: GPUs idle between requests, cold starts take seconds, costs explode with traffic, and a single regional outage takes down your product. Production inference needs an entirely different architecture.

How CogniCloud helps

Everything you need, built in.

Continuous batching

vLLM-powered continuous batching processes tokens from multiple concurrent requests in a single forward pass. GPU utilisation stays above 90% even with bursty, unpredictable traffic.

Prefix KV-cache reuse

System prompts, RAG context, and few-shot examples are computed once and cached. Subsequent requests with identical prefixes skip the computation entirely — up to 80% cost reduction.

Global edge network

Anycast BGP routes each request to the nearest GPU cluster across globally distributed points of presence. Users globally get single-digit millisecond TTFT.

Scale to zero

Deployments with no traffic cost nothing. Sub-2-second cold starts mean the first request after an idle period still meets most real-world latency budgets.

Speculative decoding

A small draft model predicts multiple tokens ahead; the main model verifies them in parallel. Reduce median TTFT by up to 40% with no measurable quality loss.

Multi-LoRA hot-swap

Serve hundreds of LoRA adapters on a single deployment. The runtime hot-swaps the adapter per request, sharing base model weights across all adapters to maximise GPU utilisation.

How it works

From zero to production in three steps.

01

Deploy your model

Point the CLI at any Hugging Face model ID or private weights URI. CogniCloud builds the optimised serving container and deploys to the nearest GPU cluster.

$ cogni deploy \
  --model meta-llama/Llama-3-70B-Instruct \
  --hardware high-perf \
  --regions auto

✓ Building vLLM serving container
✓ Loading weights to Neural Cache
✓ Endpoint ready in 14s

  https://api.cognicloud.net/v1/chat
02

Call the OpenAI-compatible API

One line change in your existing code. The API accepts the same request shape as OpenAI, so migration is a URL swap.

import OpenAI from "openai";

const client = new OpenAI({
  baseURL: "https://api.cognicloud.net/v1",
  apiKey:  process.env.COGNI_API_KEY,
});

const stream = await client.chat.completions.create({
  model:  "meta-llama/Llama-3-70B-Instruct",
  stream: true,
  messages: [{ role: "user", content: prompt }],
});
03

Monitor & optimise

The dashboard shows live request rates, TTFT percentiles, cache-hit ratios, and per-token cost. Set autoscale policies once and never touch them again.

# Real-time metrics
p50 TTFT:    4.1ms
p99 TTFT:    8.7ms
Cache hit:   94.2%
Throughput:  1,847 tok/s
Cost/1M tok: $0.42
Active GPUs: 12 (auto)
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