An RL framework and finetuning API that teaches any model what to want.
Multimodal alignment for the next generation of agents.
Reward convergence
Fewer misaligned actions
API integration
Modalities supported
Modern architectures optimize surface-level correlations. Without an explicit representation of intent, models break down the moment the objective shifts.
Standard finetuning embeds task-specific behavior into weights through demonstration. The model mimics trajectories without internalizing the underlying objective—leading to brittle generalization and reward hacking under distribution shift.
Intent Layer introduces an explicit intent representation between perception and action. The model learns to map observations to a structured objective space first, then derives actions—enabling transfer, composability, and alignment by construction.
Models exploit reward proxies without intent grounding.
Context models can't adapt when goals shift, only inputs.
Multi-step reasoning collapses without decomposed intent.
Vision, language, and action need a unified intent space.
“The gap between a model that can follow instructions and one that understands objectives is the same gap between automation and intelligence.”
XEROML sits between model outputs and environment actions. It uses reinforcement learning to shape, filter, and align model intentions—during finetuning or at inference.
XEROML Framework
Every model output is intercepted, intent-classified, and either forwarded or corrected before reaching the environment.
The RL engine adjusts reward signals in real time based on intent alignment scores—no manual reward engineering.
PPO and GRPO updates bake alignment directly into model weights during finetuning with intent-conditioned loss.
Deploy in passthrough mode to filter and correct outputs at inference time with zero weight updates.
From language models to robotic arms, intent is the common substrate that turns perception into purposeful action.
From cloud-native agents to physical robots, Intent Layer adapts to your modality and deployment target.
Integrate Intent Layer into any finetuning pipeline with our Python SDK. Define intents, attach rewards, and start training.
▸ Output
Send any model's raw output through our API. Get back structured intent classification, alignment scores, and actionable metrics—in real time.
{
"model_id": "your-model-v3",
"input": {
"modality": "text",
"prompt": "Book a flight to SF...",
"context": "user_calendar, travel_preferences"
},
"model_output": {
"actions": [
"search_flights(SFO, Mar 15-18)",
"book_hotel(downtown SF, 3 nights)"
]
},
"intents": ["task_completion", "cost_optimization"],
"eval_mode": "full"
}{
"intent_alignment": {
"overall_score": 0.94,
"task_completion": 0.97,
"cost_optimization": 0.88
},
"risk_flags": [],
"action_quality": {
"hallucination_prob": 0.02,
"redundant_actions": 0,
"missing_steps": ["confirm_dates"]
},
"reward_signal": 0.91,
"latency_ms": 18
}vs. no intent layer
fewer redundant actions
pre-action filtering
p50 overhead
Evaluated against baseline RLHF and vanilla finetuning on standard alignment and capability benchmarks.
AgentBench v2
vs. vanilla PPO
vs. RLHF baseline
p99 latency
Performance comparison
Drop-in integration, real-time observability, and first-class support for every major framework.
Works with PyTorch, JAX, HuggingFace, vLLM, and any custom training loop. Three lines of code to integrate.
Monitor intent alignment, reward curves, and policy drift in real time. Set alerts for safety constraint violations.
Use during finetuning for RL-based alignment, or at inference for real-time intent filtering without retraining.
Text, vision, audio, sensor, and action spaces treated as first-class citizens. Cross-modal intent coherence out of the box.
Define non-negotiable boundaries as hard constraints, not soft rewards. Formal guarantees for safety-critical deployments.
Run entirely on-prem for sensitive workloads, or use our managed API. Same SDK, same interface, your choice of deployment.
Start building with Intent Layer today. Free tier for research. Enterprise plans for production.
How explicit intent representations eliminate the reward misspecification problem in RLHF pipelines.
Jan 2026
8 min read
Step-by-step guide to wrapping a code-gen model with Intent Layer for safer, more reliable agentic coding.
Dec 2025
12 min read
How a robotics team used Intent Layer to cut sim-to-real failure rates by 63% on manipulation tasks.
Nov 2025
6 min read