Brute Force Intelligence

State-Space Foundation Architectures for Infinite Context AI

We are building next-generation sequence models that eliminate the memory wall.

At Brute Force Intelligence, we design constant-memory state-space model (SSM) architectures that replace resource-intensive Transformer KV-caches. Our flagship research delivers linear runtime complexity and constant GPU RAM consumption across unlimited context windows—enabling scalable, high-throughput inference on enterprise GPU infrastructure.

O(1) RAM
Inference Memory Footprint
O(N) Speed
Linear Training Complexity
20B – 50B
Target Foundation Scale

Loci-S4D: Constant-Memory State Space Architecture

Loci-S4D combines continuous diagonalized state-space discretization with quasi-random Halton sequence anchoring and dynamic Gaussian window focus. This hybrid design allows the network to maintain precise long-range temporal recall without requiring quadratic memory expansion during generation.

1. Continuous Dynamic State Space (HiPPO/S4D) Core Kernel

Replaces token-by-token spatial attention with a continuous temporal state operator. Leverages normal-plus-low-rank spectral decomposition to preserve long-range dependencies across millions of tokens without forgetting early context.

HiPPO Matrix Diagonal Discretization Bfloat16
2. Spatial Anchoring Memory Indexing

Employs low-discrepancy quasi-random spatial sequences to anchor recurrent memory states across high-dimensional latent vectors, preventing gradient degradation over extended token sequences.

Building the Future: Production Model Execution Plan

Our step-by-step technical roadmap to deliver our first production-ready, medium-sized (20B–50B parameter) Loci-S4D foundation model to market.

Phase 1: Triton Kernel Engineering & Micro-Benchmarking Active Milestone

Optimize custom Triton GPU kernels for channel-parallel state recurrences to maximize Model Flop Utilization (MFU ≥ 90%) on NVIDIA H100 and A100 clusters. Validate zero memory decay on synthetic sequences up to 1M tokens.

Triton CUDA FP8 / BF16 H100 Benchmarking
Phase 2: Small-Scale Validation (1B – 7B Pre-Training) Q3 2026

Execute pre-training runs on 500 Billion tokens of curated code, mathematical reasoning, and long-form document datasets. Evaluate needle-in-a-haystack accuracy and inference speed against standard Llama-3 and Mamba baselines.

PyTorch Distributed DeepSpeed AWS EFA Megatron-LM
Phase 3: Production Training (20B – 50B Parameter Model) Q4 2026

Scale up compute to train the full 20B–50B parameter architecture across 2.5 Trillion tokens. Deploy 3D parallelism (Tensor, Pipeline, and Sequence Parallelism) using AWS EC2 UltraClusters to deliver enterprise-grade performance.

20B-50B Scale AWS P5 / P4d Slurm FS2 Checkpointing
Phase 4: SFT, Alignment & Enterprise Deployment Q1 2027

Apply Supervised Fine-Tuning (SFT) and Direct Preference Optimization (DPO) for multi-step reasoning. Package the final weights into lightweight vLLM and TensorRT-LLM runtimes for low-latency API and edge deployment.

DPO Alignment TensorRT-LLM vLLM Plugin Enterprise API

Infrastructure & Cloud Deployment Architecture

Brute Force Intelligence leverages high-performance AWS cloud infrastructure to manage large-scale data pipelines, model checkpointing, and GPU cluster orchestration.

AWS Compute & Networking Architecture Cloud Specs

• Compute: AWS EC2 p5.48xlarge (8x H100) and g5.12xlarge (4x A10G) instances for distributed pre-training and kernel validation.
• Storage: Amazon S3 for high-throughput streaming of terabyte-scale datasets and distributed checkpointing.
• Networking: AWS Elastic Fabric Adapter (EFA) enabling 3.2 Tbps node-to-node interconnect for low-latency multi-node scaling.