hardware-ml-benchmark 0.2

A hardware benchmarking tool for evaluating the inference performance of deep learning models. It supports pretrained tasks in image classification, object detection, and image segmentation, along with a variety of datasets.

Deep Learning Benchmark Tool

A deep learning model performance benchmarking tool that supports image classification, object detection, semantic segmentation tasks with pretrained/customized models on multiple datasets. This tool aims to give a glance at the ML performance of your device.

System Requirements

• Python 3.7+
• PyTorch 1.8+
• CUDA-supported GPU (optional, for GPU acceleration)
• Recommended memory: 8GB+ (depends on model size)

Install Basic Dependencies

pip install -r requirements.txt

Basic Usage

View Available Options (if you run from source code)

# List all available models
python -m hardware_ml_benchmark.main --list-models

# List all available datasets
python -m hardware_ml_benchmark.main --list-datasets

# View complete help information
python -m hardware_ml_benchmark.main --help

Possible Questions

CUDA Related Errors

# Check if CUDA is available
python -c "import torch; print(torch.cuda.is_available())"

Permission Issues (Windows)

# Run command prompt as administrator
# Or modify output directory to a directory with write permissions
python -m hardware_ml_benchmark.main --output-dir C:\Users\YourName\benchmark_results ...

Command Line Examples

Quick Test (CPU, 100 samples, classification):

python -m hardware_ml_benchmark.main \
    --task classification \
    --model resnet18 \
    --dataset MNIST \
    --device cpu \
    --samples 100

GPU Accelerated Test(detection):

python -m hardware_ml_benchmark.main \
    --task detection \
    --model fasterrcnn-resnet50-fpn \
    --dataset COCO-Sample \
    --device cuda:0 \
    --samples 500

Large Scale Test (automatic device selection,segmentation):

python -m hardware_ml_benchmark.main \
    --task segmentation \
    --model unet_resnet34 \
    --dataset Synthetic-Segmentation \
    --device auto \
    --samples 1000

Advanced Options Examples

Custom Output Directory:

    python -m hardware_ml_benchmark.main --output-dir ./my_results

Chart Generation:

    python -m hardware_ml_benchmark.main --plot

Silent Mode (reduced output):

    python -m hardware_ml_benchmark.main --quiet

Test All Samples:

    python -m hardware_ml_benchmark.main --samples -1

Model and Dataset Support

Task	Supported Models	Datasets	CPU Support
Classification	ResNet, EfficientNet, ViT, MobileNet	MNIST, CIFAR-10, ImageNet-Sample	✓
Detection	YOLOv8, Faster R-CNN, FCOS	COCO-Sample, KITTI, Test-Images	✓
Segmentation	U-Net, DeepLabV3+, PSPNet, FPN	Cityscapes, Synthetic-Segmentation	✓

specifying models by name, local path, or URL

Model by name (existing functionality)

python -m hardware_ml_benchmark.main --task detection --model yolov8n --dataset Test-Images

Local path with tilde expansion

python -m hardware_ml_benchmark.main --task detection --model ~/models/my_yolo.pt --dataset Test-Images

Relative path

python -m hardware_ml_benchmark.main --task detection --model ./checkpoints/best.pth --dataset Test-Images

Absolute path

python -m hardware_ml_benchmark.main --task classification --model /home/user/models/resnet.pth --dataset MNIST

URL

python -m hardware_ml_benchmark.main --task detection --model https://example.com/models/yolo.pt --dataset Test-Images

Limitations

-The current implementation only supports specific model formats (PyTorch .pt/.pth files, YOLO models, and framework-specific architectures).

• The current statistical reporting is limited to mean, standard deviation, min, and max values. The tool lacks advanced performance analysis including percentile distributions, confidence intervals, statistical significance testing, and performance regression detection across multiple runs.

• The implementation assumes single-device execution and lacks support for distributed inference, multi-GPU benchmarking, or batch parallelization strategies that would be essential for evaluating large-scale deployment scenarios.

Future work

• Model Optimization Integration: Implement support for quantized models (INT8, FP16), pruned networks, and knowledge-distilled architectures to enable realistic performance comparisons between optimized and baseline models.

• Energy Efficiency Metrics: Extend monitoring to include power consumption measurements and energy-per-inference metrics, which are increasingly critical for edge deployment and sustainability considerations.

• Asynchronous Inference Profiling: Develop tools to measure pipeline parallelism, async data loading efficiency, and queue management overhead that are critical for production inference servers.