This work introduces Instruction-Followed Function Calling (IFFC), a novel framework that decouples function-calling logic from the primary LLM and delegates it to a dedicated smaller model operating within the instruction-following paradigm, establishing a new paradigm for reliable, resource-efficient function calling in edge-computing scenarios.
Abstract
Function calling represents the core capability of agentic large language models (LLMs). Existing research has focused on enhancing LLMs function-calling accuracy through fine-tuning, reinforcement learning (RL), and multi-agent frameworks, particularly for native function-calling LLMs. This work demonstrates that LLMs achieve superior accuracy in function calling in instruction-following contexts (i.e., standard user-assistant interactions) rather than a tool calling context. We introduce Instruction-Followed Function Calling (IFFC), a novel framework that decouples function-calling logic from the primary LLM and delegates it to a dedicated smaller model operating within the instruction-following paradigm. Our method consistently outperforms both native function calling (NFC) and prompt-based function calling (PFC) baselines, with particularly strong gains on reasoning-oriented LLMs. Furthermore, we demonstrate that IFFC maintains robust performance under aggressive quantization, enabling efficient on-device deployment without significant accuracy degradation. This work establishes a new paradigm for reliable, resource-efficient function calling in edge-computing scenarios.
AgentWeave is introduced, a deterministic pre-inference routing layer that constructs a bounded model-visible action space using eligibility, requirement, capability, and routing signals and shows lower mean local-model latency.
Saurav Singla, A. Singla, Advik Gupta et al.· 0 citations
This project explores the Countdown arithmetic reasoning task: given a set of numbers, produce an arithmetic expression that evaluates to a target value on the Qwen 2.5-0.5B base model and proposes two complementary extensions targeting these failure modes.
This work empirically compare programmatic tool calling to native JSON tool calling across 14 language models on BFCL v4 and demonstrates that programmatic tool calling is a viable and robust alternative to JSON tool calling, with performance tracking model capability across release generations.
Ishan Patel, Sahil Sen, Elias Lumer et al.· 1 citation
A normalized dollar cost per LLM call reported alongside the figure of merit (FoM) is introduced, enabling fair comparison across effort levels and optimizers and finding the construction of the long-term memory matters little.
Stef Cuyckens, M. Jivanescu, Jun Yin et al.· arXiv.org· 0 citations
Beyond in-domain gains, mid-training mitigates the capability erosion that agentic post-training otherwise inflicts on non-agent coding and non-coding tool-use benchmarks (tau-bench, BFCL): although the mid-training corpus contains Python code only, the function-call inductive bias survives post-training and yields con...
Agent Memory Distillation (AMD), a training-free framework that transfers structured knowledge from a large teacher agent to a small student agent through hierarchical memory, is proposed, which consistently outperforms existing memory-based baselines.
Taeil Kim, Kangsan Kim, S. Hwang· 3 citations
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