
Adaptive Tuning for NeMo Relay
OfficialFreeOptimize adaptive plugin behavior for NeMo Relay.
Free · Opens the source repo
What Adaptive Tuning for NeMo Relay does
The Adaptive Tuning skill for NeMo Relay is designed for users who have already established baseline instrumentation and are looking to enhance their system's performance through adaptive behavior adjustments. This skill allows users to configure and evaluate various aspects of adaptive plugin behavior, such as telemetry, state management, tool parallelism, and hint consumption. By leveraging runtime signals, users can fine-tune their applications to improve latency and model-request behavior while maintaining a clear comparison against a known baseline.
To effectively utilize this skill, users should begin by confirming that their application emits the necessary scope events and managed tool or LLM events. The skill emphasizes a methodical approach: observe the current performance, capture a baseline, and then enable adaptive telemetry with in-memory state. This structured rollout allows for incremental changes, ensuring that any adjustments made are grounded in actual performance data rather than assumptions.
The skill is particularly useful for developers and data scientists working with NeMo Relay who need to adjust their adaptive behavior based on real-time metrics. It is built to facilitate the use of existing NeMo Relay scopes, making it easier to integrate adaptive tuning into ongoing projects without the need for extensive reconfiguration or custom logic. The skill supports various backends for state management and offers helper APIs in multiple programming languages, ensuring flexibility in implementation.
However, it is crucial to note that this skill should not be used unless the application is already instrumented. Users are advised to start with the nemo-relay-instrument-calls or nemo-relay-get-started skills if they are new to the NeMo Relay framework. The Adaptive Tuning skill is an advanced tool that requires a foundational understanding of the system's instrumentation and operational dynamics, making it ideal for users who are already familiar with the NeMo ecosystem.
When to use it
Use this skill when you have baseline NeMo Relay instrumentation and want to enhance system performance through adaptive tuning.
When not to use it
Avoid this skill if your application is not instrumented yet; start with the appropriate setup skills first.
What you can build with it
Improving Model Latency
A developer uses the skill to analyze and adjust the adaptive behavior of their NeMo Relay application, resulting in reduced model response times.
Enhancing Parallelism
A data scientist implements the skill to fine-tune tool parallelism settings, achieving better resource utilization during model inference.
Configuring Telemetry
An engineer leverages the skill to set up telemetry for monitoring adaptive behavior, allowing for data-driven adjustments to the application.
How to install Adaptive Tuning for NeMo Relay
View source1. Install with the skills CLI
npx skills add nvidia/skills/nemo-relay-plugin-adaptive-tuning --agent claude-code2. Or install it manually
Download the skill folder and drop it into ~/.claude/skills/ for all projects, or .claude/skills/ to scope it to one repo. Restart Claude Code so it picks up the new skill.
Anthropic's agentic coding CLI, and the reference implementation of Agent Skills. Drop a skill folder into ~/.claude/skills and Claude Code loads it automatically whenever a task matches the skill's description. Claude Code docs
Inside SKILL.md
Written by nvidiaTune Adaptive Plugin Behavior
Use This When
Use this skill when a user has baseline NeMo Relay instrumentation and wants to improve latency, parallelism, prompt-cache behavior, or model-request behavior from runtime signals. Keep adaptive behavior measured against a known baseline.
Do Not Use This When
Do not use this skill when the application is not instrumented yet. Start with
nemo-relay-instrument-calls or nemo-relay-get-started first.
Default Guidance
- Observe first, compare against a baseline, then enable one behavior change at a time.
- Use the adaptive plugin component rather than inventing separate tuning logic or hand-registering adaptive behavior at every call site.
- Start with in-memory state and telemetry-only behavior for local development.
- Move to persistent state only when learned signals must survive restarts or be shared across workers.
- Add active behavior only after representative runtime events show what should change.
Embedded Adaptive Model
- Adaptive behavior is configured through the first-party plugin component with
kind
adaptive. - Adaptive requires existing NeMo Relay scopes and at least one relevant managed tool or LLM lifecycle event stream because it learns from runtime signals.
- Main configuration areas are state, telemetry, adaptive hints, tool parallelism, Adaptive Cache Governor (ACG), and rollout policy.
- State backends are
in_memoryandredis. - Tool-parallelism modes are
observe_only,inject_hints, andschedule. - Adaptive Cache Governor providers are
passthrough,anthropic, andopenai; omit ACG until prompt-cache planning is needed. - Helper APIs exist in Rust
nemo_relay_adaptive, Pythonnemo_relay.adaptive, and Node.jsnemo-relay-node/adaptive. Go and raw FFI are source-first or advanced surfaces.
Default Path
Use this rollout sequence:
- Confirm the app emits scope events and the managed tool or LLM events needed for the behavior being evaluated. Do not require both call types when the workflow uses only one.
- Capture a baseline for the workflow you want to improve.
- Enable adaptive telemetry with in-memory state.
- Read
references/config.mdwhen exact plugin configuration fields are needed. - Run representative traffic and inspect reports or runtime events.
- If configuration validation fails or expected events are absent, return the diagnostics and stop. Keep the last known working configuration active.
- Before enabling scheduling, verify tool idempotency and race behavior. Before enabling ACG, verify that provider request payloads are stable.
- Enable the smallest behavior change in config.
- Read
references/hints.mdwhen application logic consumes adaptive hints, tool-parallelism guidance, or ACG diagnostics. - Compare results against the baseline. If latency, correctness, or failure rate regresses, restore the last known working configuration and retain the sanitized diagnostics for review.
Failure Modes To Avoid
- Do not enable scheduling before tool idempotency and race behavior are known.
- Do not enable prompt-cache planning before provider payloads are stable.
- Do not treat adaptive hints as mandatory instructions unless the consuming path explicitly defines that contract.
- Do not use environment variables as the primary adaptive configuration model.
- Do not tune from a single run or unrepresentative traffic.
- Do not suppress or replace original tool and model errors.
- Do not add retries until the call owner defines their safety.
- Revert adaptive behavior when it increases the failure rate.
Load A Reference When
- You need the exact adaptive config shape ->
references/config.md - You need to consume adaptive hints or scheduling guidance in app logic ->
references/hints.md
Use Another Skill When
- You need to build reusable plugin behavior instead of configuring the built-in
adaptive component ->
nemo-relay-plugin-build
Related Skills
nemo-relay-get-startednemo-relay-instrument-callsnemo-relay-plugin-observabilitynemo-relay-plugin-build
Frequently asked questions about Adaptive Tuning for NeMo Relay
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