Optimized AI Platform

Optimize AI Models for Production

Deploy models on edge devices, mobile, IoT, and resource-constrained environments with our advanced quantization and compression technology. Reduce model size by 75% while maintaining accuracy.

75%
Size Reduction
<1%
Accuracy Loss
10x
Inference Speedup
Any
Hardware Target
Core Technology

Advanced Optimization Tools

Complete AI model optimization suite for enterprise deployment.

Quantization

INT8: 4x smaller models with <1% accuracy loss

INT4: 8x compression for extreme edge cases

Mixed Precision: Per-layer precision for optimal trade-offs

QAT: Best accuracy preservation via Quantization-Aware Training

Model Compression

Pruning: Remove up to 90% of weights with minimal impact

Distillation: Create smaller student models from large teachers

Low-Rank Factorization: Compress weight matrices

NAS: Neural Architecture Search for optimal structures

Hardware Optimization

GPU: CUDA, TensorRT, cuDNN optimization

Mobile: CoreML (iOS), NNAPI (Android)

Edge: ONNX Runtime, TensorFlow Lite

Custom: FPGA, ASIC deployment support

Developer-First API

Integrate optimization directly into your PyTorch or TensorFlow pipelines.

post_training_quantization.py
import torch
from nexus_opt import quantize_model

# Load your trained model
model = torch.load('model.pth')

# Apply INT8 quantization
quantized_model = quantize_model(
    model,
    quantization_type='int8',
    calibration_data=calibration_loader,
    symmetric=True
)

# Compare sizes
original_size = model.get_memory_footprint()
quantized_size = quantized_model.get_memory_footprint()
print(f"Compression: {original_size/quantized_size:.1f}x")
mixed_precision_search.py
from nexus_opt import MixedPrecisionOptimizer

# Automatically find optimal precision per layer
optimizer = MixedPrecisionOptimizer(
    model,
    accuracy_threshold=0.99,  # Maintain 99% accuracy
    latency_target=10         # Target 10ms latency
)

# Search for optimal configuration
optimal_config = optimizer.search(
    calibration_data,
    search_space=['int8', 'int4', 'fp16'],
    num_trials=100
)

optimized_model = optimizer.apply(optimal_config)
knowledge_distillation.py
from nexus_opt import DistillationTrainer

# Large teacher model
teacher = LargeModel()
teacher.load_state_dict(torch.load('teacher.pth'))
teacher.eval()

# Small student model
student = SmallModel()

# Train student to mimic teacher
trainer = DistillationTrainer(
    teacher=teacher,
    student=student,
    temperature=3.0,
    alpha=0.7
)

trainer.train(train_loader, epochs=100)
# Student is 10x smaller with 95% accuracy
Supported Frameworks
PyTorchNative optimization pipeline
TensorFlowTF Lite and TensorRT support
JAXXLA compilation
ONNXUniversal model format
Hugging FaceTransformers optimization

Performance Metrics

Inference Latency

ResNet50
120ms25ms (4.8x)
BERT-Base
45ms8ms (5.6x)
YOLOv5
80ms15ms (5.3x)

Model Size Reduction

GPT-2 (1.5B)
6GB1.5GB
ViT-Large
1.2GB300MB
EfficientNet
200MB50MB

Deployment Use Cases

  • Mobile: Sub-second inference on smartphones
  • Edge: IoT, drones, robots with limited compute
  • Real-Time: <10ms latency for autonomous vehicles
  • Cost: Reduce cloud inference bills by 75%