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abstract indexed · arXiv 2609.12412 · updated 2026-10-18

HoliBench: A Cross-Platform Benchmarking and Deployment Toolkit for Foundation Models in CPS-IoT Applications

First page of HoliBench: A Cross-Platform Benchmarking and Deployment Toolkit for Foundation Models in CPS-IoT Applications
From the original paper · arXiv 2609.12412Page 1. Select the image to read the PDF.

HoliBench replaces ad-hoc, platform-specific profiling scripts and accuracy-only evaluation harnesses with a unified toolkit that measures accuracy, latency, and energy once per device and reuses those profiles for constraint-aware deployment selection. The cost is an upfront profiling campaign per device-model-backend combination, integration effort with its abstraction layer, and the engineering overhead of maintaining an open-source toolkit rather than a model-level optimization. It can fail if the reader's targets are only a single 24 GB GPU or third-party APIs (where cross-device calibration adds little), if profile composition breaks down under concurrent rather than sequential co-resident execution, or if measurement drift and quantization-backend interactions make reused profiles stale.

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Why it was shortlisted

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recommendation
test
research area
other
technical change
Cross-platform deployment benchmarking and profiling toolkit
published
2026-09-11

The toolkit is directly usable on constrained infrastructure and its compose-once profiles can eliminate repeated profiling, but its value depends on whether the reader actually deploys across heterogeneous edge devices rather than a single GPU or APIs, so workload-specific validation is warranted before adoption.

Central equations

Original equations, typeset for reading. Paperraft explanations connect the mechanism, its aim, and the evidence.

The second stage is a pluggable solver. The solver interface accepts any implementation conforming to the contract solve(candidate_set, constraints, weights) → ranked_configurations, separating the calibrated measurement infrastructure (the profile table) from the selection policy applied to it. HoliBench ships with an Integer Linear Programming (ILP) solver as the representative implementation. The ILP defines a weighted utility Ui over normalized metrics for each configuration i∈𝒞 and selects the configuration maximizing Ui, subject to the user-specified deployment constraints. Formally,

Maximize Ui=∑jwjv^i,jsubject to:

equation (4) · §3. System Architecture · proposed method

The second stage is a pluggable solver. The solver interface accepts any implementation conforming to the contract solve(candidate_set, constraints, weights) → ranked_configurations, separating the calibrated measurement infrastructure (the profile table) from the selection policy applied to it. HoliBench ships with an Integer Linear Programming (ILP) solver as the representative implementation. The ILP defines a weighted utility Ui over normalized metrics for each configuration i∈𝒞 and selects the configuration maximizing Ui, subject to the user-specified deployment constraints. Formally,

li≤Lmax,ei≤Emax,mi≤Mmax,ai≥Amin

unnumbered equation · §3. System Architecture · complexity

equations from arXiv HTML · fetched 2026-09-29

Claims and evidence

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  1. claim 01Paperraft inference
    Read the brief interpretation

    HoliBench replaces ad-hoc, platform-specific profiling scripts and accuracy-only evaluation harnesses with a unified toolkit that measures accuracy, latency, and energy once per device and reuses those profiles for constraint-aware deployment selection. The cost is an upfront profiling campaign per device-model-backend combination, integration effort with its abstraction layer, and the engineering overhead of maintaining an open-source toolkit rather than a model-level optimization. It can fail if the reader's targets are only a single 24 GB GPU or third-party APIs (where cross-device calibration adds little), if profile composition breaks down under concurrent rather than sequential co-resident execution, or if measurement drift and quantization-backend interactions make reused profiles stale.

    This is a Paperraft inference. It is not pinned to a verified PDF passage.

    Inspect the source
  2. claim 02Paperraft inference

    Standalone single-model profiles predict multi-model pipeline latency within 1.2% and power within 2.5% under sequential co-resident execution; other findings are qualitative (e.g., quantization reduces latency only on low-precision hardware, autoregressive average power is approximately constant across output lengths).

    This is a Paperraft inference. It is not pinned to a verified PDF passage.

    Inspect the source

Exposure map

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quality

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compute and memory

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latency

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operations

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software compatibility

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security

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data and training

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reproducibility

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Inside the paper

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