⚡ Zero-OOM Tiered Memory Offloading

Run 750B+ Parameters On Local Consumer Metal.

LAYERIS breaks the GPU VRAM bottleneck. By orchestrating hardware-adaptive layer streaming across NVMe SSD, Host DDR5 RAM, and GPU VRAM, colossal foundation models execute seamlessly on your everyday workstation.

Max Model Size 1,000B+ No VRAM Cap
Min. VRAM Required 6 GB - 12 GB Single Active Layer
Prefetch Pipeline Async Double-Buffer Zero-Stall Overlap
Quant Support Q2_K to FP16 Lossless Layer Slicing
TIER 2 • GPU VRAM 8 GB ACTIVE
RAM ➔ VRAM • COMPUTE

64 GB/s PCIe DMA burst loads layer weights into GPU memory. Tensor Core GEMM matrix multiplication computes forward pass and emits decoded tokens to TOK_OUT.

TIER 1 • SYSTEM RAM 64 GB DDR5
SSD ➔ RAM • RING BUFFER

12.8 GB/s DirectStorage pipeline. Asynchronous double-buffering pre-stages Layer #49 into host RAM circular buffer while Layer #48 executes, hiding storage latency.

TIER 0 • NVMe SSD 420 GB COLD
INTERNAL PROCESS • ZERO-COPY

750B model weights divided into contiguous memory-mapped layer shards via io_uring / DirectStorage. Zero kernel-space duplicate copies.

THE LAYERWISE PARADIGM

How LAYERIS Unlocks 750B on 8GB GPUs

Traditional inference crashes with OOM because it attempts to load all 80+ transformer layers into GPU memory at once. LAYERIS transforms execution into a synchronized continuous stream.

TIER 0 • PERSISTENT STORAGE

Zero-Copy Fast Disk Shards

750B model weights are divided into contiguous, serialized layer chunks formatted with io_uring / Windows DirectStorage memory-mapping. Data is read directly without kernel space memory duplication.

TIER 1 • SYSTEM DDR5 RAM

Circular Sliding Layer Buffer

System RAM acts as a high-bandwidth reservoir. As Layer $N$ evaluates in the GPU, Layer $N+1$ and $N+2$ are already pre-fetched and prepared in pinned host memory, concealing PCIe transmission latency.

TIER 2 • GPU ACCELERATOR

Micro-Buffer Ping-Pong Execution

Only 1 to 2 transformer layers occupy VRAM at any split millisecond. Once compute finishes for layer $k$, intermediate hidden activations are passed to layer $k+1$, instantly discarding previous weights.

LAYERIS INTELLIGENT ALLOCATOR

Hardware Tier & Feasibility Planner

Input your local system specifications to find out how LAYERIS partitions a 750B, 405B, or 70B model across your physical hardware.

Quick Presets:
Available GPU VRAM 24 GB
0 GB (CPU) 8 GB (3060/4060) 16 GB (4080) 24 GB (3090/4090) 48 GB+ (A6000)
System Host RAM 128 GB
16 GB 32 GB 64 GB 128 GB 256 GB+
✓

100% FEASIBLE WITH LAYERIS

Your system can run this 750B model without running out of memory via asynchronous 3-tier pipelining.

PHYSICAL MEMORY DISTRIBUTION (Total: 421.8 GB) Layerwise Slicing
VRAM Active: 21.5 GB
RAM Buffer: 118 GB
NVMe Shard: 282.3 GB
Estimated Generation ~4.6 tok/s Fast enough for real-time reading & coding
Per-Layer Size 3.29 GB Active layer compute slice
Single Layer Swap 47 ms Zero-stall hidden behind compute
Hardware Utilization 94.2% PCIe & Tensor Core saturation
DISTRIBUTED WEIGHT VAULT

Model Stratum — Layer-Sliced LLMs

Download whole models or modular layer slices. Tailored for instant execution with the LAYERIS runtime.

SEAMLESS INTEGRATION

Get Started with LAYERIS in 3 Steps

Zero complex CUDA compilation. Install our high-performance runtime daemon and start serving models locally or through an OpenAI-compatible endpoint.

bash — layeris-cli@localhost:~/models
# 1. Install the LAYERIS Hardware-Adaptive Runtime
$ curl -fsSL https://layeris.ai/install.sh | sh # Or 'winget install layeris' on Windows
✓ Detected: RTX 4080 (16GB VRAM), 64GB DDR5 Host RAM, Gen4 NVMe (7.2 GB/s)
✓ DirectStorage DMA Acceleration & Pinned Page Pool: Initialized

# 2. Download and stream the 750B model automatically partitioned for your hardware
$ layeris pull layeris-750b-nexus --quant Q4_K_M --auto-tier
Streaming Layer 01-128 manifests [====================] 420.8 GB (DirectStorage zero-copy)

# 3. Launch Local Interactive REPL or OpenAI Compatible Server
$ layeris serve layeris-750b-nexus --port 8080 --openai-api
🚀 LAYERIS server running at http://127.0.0.1:8080/v1/chat/completions
⚡ Active Layer Window: 1 Layer in VRAM (3.2 GB) | 12 Layers in RAM | 115 Layers in NVMe
Ready for queries! Latency: ~210ms TTFT | 4.8 tokens/sec
🔌

OpenAI Compatible

Drop-in replacement for api.openai.com. Connect directly to LangChain, LlamaIndex, OpenWebUI, or Continue.dev.

⚙️

Auto Layer Calibration

Dynamically re-balances VRAM vs RAM allocation if other applications start consuming memory on your PC.

📦

Modular Layer Slicing

Download individual layer packs. Stop, resume, or mirror specific transformer stages across external drives.

HARDWARE EFFICIENCY

LAYERIS vs Traditional Inference Engines

See how layerwise tiered offloading compares with standard vLLM and llama.cpp when tackling 700B+ models.

Architecture Feature Standard vLLM / HuggingFace Standard llama.cpp LAYERIS Runtime
Min VRAM for 750B (Q4) 420+ GB (8x H100) Whole-model RAM required (~450GB) 8 GB - 16 GB VRAM (Any consumer GPU)
Memory Architecture Monolithic GPU Load CPU RAM to GPU Offload 3-Tier Continuous Layer Streaming
OOM Crash Frequency Instant Crash if VRAM exceeded Frequent on long context 0% (Guaranteed mathematically)
Disk Transfer Bottleneck Full cold load (15-30 min) Full model mmap freeze Async Double-Buffer Zero-Stall DMA
Consumer Hardware Cost $300,000+ Enterprise Cluster $8,000+ High-RAM Workstation $1,200 Workstation / Existing PC