Inference Stack

Run at scale with optimized model runtimes.

Geodd’s Inference Stack is the core execution layer powering our performance-driven ecosystem.

It’s built to handle large context workloads with deterministic speed, combining software level optimization and concurrency stability.

THE OPTIMIZATION LAYER

Overview

The Inference Stack is a runtime and orchestration framework designed to execute models efficiently under real-world traffic.

It eliminates common performance bottlenecks through dynamic batching, speculative decoding, and managing KV cache, ensuring predictable throughput even under load.

Our design principles

Latency Stability

p99 latency holds steady under scaling.

Throughput Efficiency

Maximum tokens-per-second-per-user, regardless of concurrency.

Hardware Utilisation

Every kernel, thread, and memory allocation is tuned for peak efficiency.

SYSTEMS DESIGN

Architecture Layers

Execution Layer

The execution layer is where model computation happens.
It includes Geodd’s Optimised Model Engine, which profiles, rewrites, and compiles models for high-throughput runtime performance.

  • Dynamic graph compilation and kernel fusion
  • Custom speculative decoding for 2–3× faster token generation
  • Parallelised attention execution and batch concurrency optimisation

Runtime Scheduler

A concurrency-aware runtime that dynamically manages workloads based on token demand and user concurrency.
It ensures no degradation at 32+ simultaneous requests, where standard runtimes typically stall.

  • Adaptive batching per request pattern
  • Latency-driven scheduling with prefetching
  • Custom batch scheduling

EFFICIENCY BOOST

Quantisation & Adaptive Kernels

The stack integrates a precision-aware quantisation pathway designed for efficient FP8 execution, while preserving accuracy across long-context workloads.

What this adds to the stack

Accurate FP8 quantization

With calibration-based activation scaling and optimized FP8 weight layouts.

Hybrid-precision execution

Using fused kernels for attention, MLP, and sampling where supported.

Hardware-optimised kernel selection

Choosing the most efficient kernel variants based on model dimensions and compute patterns.

Impact

Significant Memory Reduction

Achieve 30–60% memory reduction via advanced quantization and tuning.

Maximized Batch Capacity

Higher batch capacity using the exact same GPU hardware footprint.

Reliable Throughput Increase

Increase throughput significantly without compromising stability or model reliability.

DEEP HARDWARE ACCESS

CUDA-Level Extensions & Cache Manager

A set of low-level GPU optimisations designed to maximise throughput, reduce memory latency, and improve token-level predictability.

Custom CUDA Plugin Layer

Custom low-level plugin for maximum efficiency and GPU throughput.

  • Custom plugins optimised for FP8/FP16 execution
  • Parallel compute paths that overlap inference compute with KV-cache updates
  • Pre-allocated memory pools to prevent fragmentation and allocation spikes

Accelerated Decoding Engine

Custom engine significantly accelerates generation speed while maintaining accuracy.

  • Configurable integration of a draft model for accelerated decoding
  • Multi-token draft generation to increase acceptance streaks
  • Automatic fallback when draft sequences fail validation
  • GPU-resident verification to minimise CPU–GPU round trips

LATENCY MANAGEMENT

KV Cache Router

A fast, lightweight memory layer that keeps KV-cache organised so models generate tokens quickly and consistently, even during long prompts or high traffic.

Core Features

Smart Access Patterns

Keeps the most important and recent cache segments easy to reach for faster lookups.

Cold-Block Cleanup

Tidies up or compresses cache regions that aren’t being used to save memory.

Parallel GPU Reads

Arranges cache blocks so GPU threads can read them efficiently, improving speed on long sequences.

Flexible Cache Layout

Adjusts how cache is stored and accessed when batch sizes grow or traffic spikes.

Impact

Steady Generation Speed

Maintains constant generation speed even with very long contexts.

Predictable Decoding Accuracy

Cleaner memory access ensures predictable and better speculative decoding accuracy.

Reliable Throughput Stability

Guarantees reliable throughput during traffic bursts and uneven workloads.

THE METRICS

Performance Highlights

Throughput Gain

25–50% higher than baseline runtimes

Latency Stability

Consistent p99 under heavy concurrency

Generation Speed

2–3× faster token decoding with custom speculative execution

Concurrency Efficiency

Stable performance at 32+ simultaneous requests

Compute Utilisation

Maximised across GPU threads and memory streams

OUR METHODOLOGY

Engineering Principles

Hardware-Aware Software

Every component is built with silicon-level understanding — no abstraction that wastes cycles.

Predictability First

Metrics stay stable under varying traffic conditions.

Continuous Optimisation

Stable perfoFeedback-driven tuning, not static configuration.mance at 32+ simultaneous requests

Concurrency by Design

Scaling is linear, not exponential in complexity.

Low-Level Control

Kernel fusion and memory management optimised per model type.

REAL-WORLD PROOF

Built for real workloads, not benchmarks.

Geodd’s Inference Stack combines runtime intelligence with silicon-level optimisation to deliver fast, consistent, and scalable inference — even under unpredictable traffic.

It’s the invisible engine behind every high-performance model we deploy.