Evaluates the runtime performance overhead and scalability of a containerized deep learning platform (FfDL) compared to bare-metal and specialized hardware, using standard image classification benchmarks. It measures how much throughput degrades when running DL training jobs in a Kubernetes-based multi-tenant environment versus direct execution. Use when the user has predictions and gold and needs to compute performance_overhead_pct.
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---
name: ffdl-platform-overhead
description: Evaluates the runtime performance overhead and scalability of a containerized deep learning platform (FfDL) compared to bare-metal and specialized hardware, using standard image classification benchmarks. It measures how much throughput degrades when running DL training jobs in a Kubernetes-based multi-tenant environment versus direct execution. Use when the user has predictions and gold and needs to compute performance_overhead_pct.
metadata:
skill_kind: metric
source_arxiv: 1909.06526
bibtex_key: jayaram2019ffdl
confidence: high
---
# ffdl-platform-overhead
> FfDL : A Flexible Multi-tenant Deep Learning Platform — Jayaram et al. (2019) (arXiv:1909.06526, 2019)
## What this evaluates
Evaluates the runtime performance overhead and scalability of a containerized deep learning platform (FfDL) compared to bare-metal and specialized hardware, using standard image classification benchmarks. It measures how much throughput degrades when running DL training jobs in a Kubernetes-based multi-tenant environment versus direct execution.
## Datasets
- **ImageNet** — total 1300000; splits: train (-1)
## Metrics
- `performance_overhead_pct` **(primary)** — range: percent
- Percentage decrease in training throughput relative to a bare-metal baseline. Calculated as ((baseline_throughput - platform_throughput) / baseline_throughput) * 100.
- `throughput_images_per_sec` — range: other
- Number of images processed per second during model training. Measured directly from the training loop iterations and batch size.
## Input / output format
**Input**: DL training job configuration specifying model architecture (VGG-16, Inception V3, ResNet-50), framework (Caffe v1.0, TensorFlow v1.5), GPU type (K80, P100, V100), number of learners, GPUs per learner, and batch size.
**Output**: Throughput in images processed per second, and percentage decrease in performance relative to a bare-metal baseline.
## Scoring recipe
```python
baseline = run_benchmark_baremetal(model, framework, gpu_config)
platform = run_benchmark_ffdl(model, framework, gpu_config)
overhead = ((baseline - platform) / baseline) * 100
return overhead
```
## Common pitfalls
- Overhead varies significantly by GPU type and distributed configuration (learners/GPUs per learner), so reporting a single aggregate number masks significant variance.
- Baseline uses manually managed bare-metal servers rather than a standardized containerized setup, potentially attributing K8s/Docker overhead incorrectly.
- Throughput is highly sensitive to CPU thread allocation and batch size; failing to saturate the GPU will artificially inflate measured overhead.
## Evidence (verbatim from paper)
> Performance is quantified as images processed/sec for training. Caffe v1.0 and TensorFlow v1.5 were used. ... From Table 1, we observe that performance overhead induced by FfDL is minimal (up to ≈ 5%).
## Citation
```bibtex
@misc{jayaram2019ffdl,
title={FfDL : A Flexible Multi-tenant Deep Learning Platform},
author={Jayaram et al. (2019)},
year={2019},
note={arXiv:1909.06526}
}
```
- arXiv: 1909.06526