Machine learning and AI applications in Rust with tensor operations, model inference, and GPU acceleration.
Works with
Covers tensor libraries (ndarray), inference frameworks (tract for ONNX, candle, burn), and PyTorch bindings (tch-rs) for training and deployment workflows
Emphasizes memory efficiency through zero-copy operations, GPU batching, and standard model formats (ONNX) for portability across Python and Rust
Provides design patterns for model loading with lazy initialization, batched i
AI-first code editor with Composer
Before installing skills in Cursor, ensure your development environment meets these requirements:
node --versiondomain-mlExecute the skills CLI command in your project's root directory to begin installation:
Fetches domain-ml from zhanghandong/rust-skills and configures it for Cursor.
The CLI shows a list of agents. Use arrow keys and space to select Cursor:
Confirm successful installation by checking the skill directory location:
Restart Cursor to activate domain-ml. Access via /domain-ml in your agent's command palette.
We perform automated surface-level scans (Gen AI Scanner, Socket, Snyk) during installation. These checks detect common vulnerabilities but do not guarantee complete security. Always review skill source code and verify the publisher's reputation before production use.
Skills execute code in your environment. Always review source, verify the publisher, and test in isolation before production.
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Automate repetitive workflows and reduce manual effort
Example
Generate reports, summarize documents, draft communications
Save 3-5 hours per week on routine tasks
Learn new skills, understand complex topics, get expert guidance
Example
Explain concepts, provide examples, suggest learning resources
Accelerate learning and skill development by 2x
Enhance output quality through reviews, suggestions, and refinements
Example
Review drafts, suggest improvements, catch errors
Improve work quality by 30-40% with less effort
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Layer 3: Domain Constraints
| Domain Rule | Design Constraint | Rust Implication |
|---|---|---|
| Large data | Efficient memory | Zero-copy, streaming |
| GPU acceleration | CUDA/Metal support | candle, tch-rs |
| Model portability | Standard formats | ONNX |
| Batch processing | Throughput over latency | Batched inference |
| Numerical precision | Float handling | ndarray, careful f32/f64 |
| Reproducibility | Deterministic | Seeded random, versioning |
RULE: Avoid copying large tensors
WHY: Memory bandwidth is bottleneck
RUST: References, views, in-place ops
RULE: Batch operations for GPU efficiency
WHY: GPU overhead per kernel launch
RUST: Batch sizes, async data loading
RULE: Use standard model formats
WHY: Train in Python, deploy in Rust
RUST: ONNX via tract or candle
From constraints to design (Layer 2):
"Need efficient data pipelines"
↓ m10-performance: Streaming, batching
↓ polars: Lazy evaluation
"Need GPU inference"
↓ m07-concurrency: Async data loading
↓ candle/tch-rs: CUDA backend
"Need model loading"
↓ m12-lifecycle: Lazy init, caching
↓ tract: ONNX runtime
| Use Case | Recommended | Why |
|---|---|---|
| Inference only | tract (ONNX) | Lightweight, portable |
| Training + inference | candle, burn | Pure Rust, GPU |
| PyTorch models | tch-rs | Direct bindings |
| Data pipelines | polars | Fast, lazy eval |
| Purpose | Crate |
|---|---|
| Tensors | ndarray |
| ONNX inference | tract |
| ML framework | candle, burn |
| PyTorch bindings | tch-rs |
| Data processing | polars |
| Embeddings | fastembed |
| Pattern | Purpose | Implementation |
|---|---|---|
| Model loading | Once, reuse | OnceLock<Model> |
| Batching | Throughput | Collect then process |
| Streaming | Large data | Iterator-based |
| GPU async | Parallelism | Data loading parallel to compute |
use std::sync::OnceLock;
use tract_onnx::prelude::*;
static MODEL: OnceLock<SimplePlan<TypedFact, Box<dyn TypedOp>, Graph<TypedFact, Box<dyn TypedOp>>>> = OnceLock::new();
fn get_model() -> &'static SimplePlan<...> {
MODEL.get_or_init(|| {
tract_onnx::onnx()
.model_for_path("model.onnx")
.unwrap()
.into_optimized()
.unwrap()
.into_runnable()
.unwrap()
})
}
async fn predict(input: Vec<f32>) -> anyhow::Result<Vec<f32>> {
let model = get_model();
let input = tract_ndarray::arr1(&input).into_shape((1, input.len()))?;
let result = model.run(tvec!(input.into()))?;
Ok(result[0].to_array_view::<f32>()?.iter().copied().collect())
}
async fn batch_predict(inputs: Vec<Vec<f32>>, batch_size: usize) -> Vec<Vec<f32>> {
let mut results = Vec::with_capacity(inputs.len());
for batch in inputs.chunks(batch_size) {
// Stack inputs into batch tensor
let batch_tensor = stack_inputs(batch);
// Run inference on batch
let batch_output = model.run(batch_tensor).await;
// Unstack results
results.extend(unstack_outputs(batch_output));
}
results
}
| Mistake | Domain Violation | Fix |
|---|---|---|
| Clone tensors | Memory waste | Use views |
| Single inference | GPU underutilized | Batch processing |
| Load model per request | Slow | Singleton pattern |
| Sync data loading | GPU idle | Async pipeline |
| Constraint | Layer 2 Pattern | Layer 1 Implementation |
|---|---|---|
| Memory efficiency | Zero-copy | ndarray views |
| Model singleton | Lazy init | OnceLock |
| Batch processing | Chunked iteration | chunks() + parallel |
| GPU async | Concurrent loading | tokio::spawn + GPU |
| When | See |
|---|---|
| Performance | m10-performance |
| Lazy initialization | m12-lifecycle |
| Async patterns | m07-concurrency |
| Memory efficiency | m01-ownership |
Prerequisites
Time Estimate
15-45 minutes depending on use case complexity
Steps
Common Pitfalls
✓ Do
✗ Don't
💡 Pro Tips
✓ Use when
Use when skill capabilities match your task, clear ROI on time saved, and you can validate outputs. Best for repetitive tasks, learning, and quality improvement.
✗ Avoid when
Avoid when task requires deep expertise you can't validate, involves sensitive decisions, or when learning process is more valuable than speed of completion.
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Solid pick for teams standardizing on skills: domain-ml is focused, and the summary matches what you get after install.
I recommend domain-ml for anyone iterating fast on agent tooling; clear intent and a small, reviewable surface area.
domain-ml has been reliable in day-to-day use. Documentation quality is above average for community skills.
Keeps context tight: domain-ml is the kind of skill you can hand to a new teammate without a long onboarding doc.
I recommend domain-ml for anyone iterating fast on agent tooling; clear intent and a small, reviewable surface area.
Solid pick for teams standardizing on skills: domain-ml is focused, and the summary matches what you get after install.
Keeps context tight: domain-ml is the kind of skill you can hand to a new teammate without a long onboarding doc.
domain-ml is among the better-maintained entries we tried; worth keeping pinned for repeat workflows.
Useful defaults in domain-ml — fewer surprises than typical one-off scripts, and it plays nicely with `npx skills` flows.
domain-ml has been reliable in day-to-day use. Documentation quality is above average for community skills.
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