Arm64-First LLM Optimization & Benchmarking Platform

Optimize LLM Inference for ARM64

Deploy, benchmark, optimize, and compare open-source LLMs on ARM64 infrastructure. Unlock up to +169% throughput with SVE2 vector acceleration, NUMA thread pinning, and INT4 quantization.

Arm Neoverse N1 / V2SVE2 & NEON Vectorsllama.cpp & GGUF
arm64-telemetry.log
LIVE STREAM
TARGET HARDWARENeoverse N1 (64c)
ACTIVE MODELLlama-3.2-3B INT4
TTFT48 ms-62%
VELOCITY34.7 tps+169%
P95 LAT104 ms-66%

$ armpilot benchmark --model llama-3.2-3b --threads 32

✓ Detected 64 aarch64 cores with SVE2 vector support

✓ KV cache compressed: Q8_0 page table (3.2 GB total)

✓ Peak throughput reached: 2,840 tokens/min (+2.7×)

ARM64 First
Native vector acceleration
LLM Benchmarking
Sub-ms latency telemetry
Inference Optimization
INT4/INT8 quantization
Open Source Models
Llama, Mistral, Phi-3, Gemma
Real-Time Performance
Micro-profiling & bottlenecks
The ARM64 Challenge

Running LLMs efficiently on ARM64 is not as simple as picking a model.

Deploying large models on CPU-efficient ARM architectures requires balancing complex hardware interconnects, memory bandwidth saturation, thread affinity, and quantization trade-offs.

Latency
P50, P95 & P99 bounds
Throughput
Tokens per second rate
Memory Bandwidth
Interconnect saturation
TTFT
Time to first token
Runtime Config
Thread & cache affinity
Model Format
GGUF quantization
CPU Utilization
64-core compute balance
⚡ ArmPilot-AI brings these measurements and automated optimization workflows into one unified platform.
Core Capabilities

A Complete Platform for Arm-Accelerated LLMs

Engineered specifically for Neoverse, Graviton, Ampere, and Apple Silicon compute environments.

Deploy

Run supported open-source models (Llama 3.2, Mistral 7B, Phi-3, Gemma, Qwen2.5) directly on ARM64 infrastructure with native SVE2 & NEON execution.

Multi-model runtime

Benchmark

Measure latency percentiles (P50/P95/P99), throughput, TTFT, tokens/sec, working set memory footprint, and physical core utilization curves.

High-resolution telemetry

Optimize

Experiment with runtime parameters, INT4/INT8 quantization, thread affinity pinning, NUMA-aware memory interleaving, and KV cache compression.

Auto parameter tuning

Compare

Evaluate models and configuration combinations side-by-side using reproducible data, before/after charts, and exportable executive reports.

Side-by-side diffs
Workflow Pipeline

How ArmPilot-AI Works

From model selection to hardware-optimized production inference in four simple stages.

01GGUF / Safetensors

Select Model

Choose from optimized open-source LLMs including Llama 3.2, Mistral 7B, Phi-3 Mini, Gemma 2B, and Qwen2.5.

02Arm SVE2 / NEON

Configure Runtime

Tune concurrency, thread affinity pinning, KV cache quantization, batch size, and execution backends (llama.cpp, ExecuTorch).

03Sub-millisecond Precision

Run Benchmark

Execute automated micro-benchmarks with high-resolution telemetry capturing TTFT, P95/P99 latency, and interconnect load.

04+169% Throughput Gain

Analyze & Optimize

Diagnose memory bandwidth bottlenecks with automated AI recommendations and export reproducible benchmark reports.

Telemetry Readout

Real-World Neoverse N1 Benchmark Metrics

Live measurements collected on 64-core Arm architecture running Llama 3.2 3B INT4.

Tokens / Second
34.7tps
+169% vs baseline

Generation velocity achieved through 32 pinned threads & SVE2.

Time to First Token (TTFT)
48ms
-62% vs baseline

Prompt prefill latency reduced via quantized KV cache allocation.

P95 Latency
104ms
-66% vs baseline

95th percentile request completion time under concurrent load.

Working Set Memory
3.2GB
-53% memory reduction

Total RAM footprint with INT4 GGUF weights + dynamic context buffer.

Aggregate Throughput
2,840tok/min
+2.7× speedup

Sustained batch throughput across 16 concurrent requests.

CPU Utilization
84%
64 cores balanced

High compute saturation without thermal or interconnect throttling.

Architecture Advantage

Why ARM64 is the Future of CPU-Efficient Inference

As LLMs become smaller and more specialized, running cost-effective inference on ARM64 infrastructure provides distinct architectural advantages over traditional power-hungry GPU clusters.

Lower Power Consumption & TCO

Up to 3x higher performance-per-watt on cloud instances (AWS Graviton, Ampere Altra) reduces monthly inference compute bills.

High Core-Density Scaling

64 to 128 physical Neoverse cores per socket allow massive concurrency without multi-GPU interconnect bottlenecks.

Unified Edge & Server Deployments

Run identical quantized model pipelines across edge devices, developer laptops (Apple Silicon), and enterprise servers.

Hardware Vector Extensions

Arm Scalable Vector Extension 2 (SVE2) and Dot Product instructions accelerate int4/int8 matrix ops natively in hardware.

Arm Architecture Compatibility Matrix

100% Tested
AWS Graviton3 / Graviton4Optimized (SVE2)
Ampere Altra / Altra MaxOptimized (NEON DotProd)
Apple Silicon (M-Series)Optimized (NEON + AMX)
Raspberry Pi 5 / RK3588 (Edge)Optimized (GGUF Q4)
Oracle Ampere A1 ComputeOptimized (NUMA Pinning)
Interactive Preview

Experience the ArmPilot-AI Platform

Explore the actual application dashboard interface built for developers and ML infrastructure engineers.

https://armpilot.dev/dashboard
Open Full Screen →
TTFT48 ms
TOKENS / SEC34.7
P95 LATENCY104 ms
THROUGHPUT2,840
RUN-0042 · Llama-3.2-3B INT4SVE2 Vector Accelerated · 32 Threads Pinned · PASS
View Live Dashboard

Start optimizing your ARM64 AI workloads.

Deploy models, measure latency down to the microsecond, and unlock the full potential of your ARM64 silicon today.