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Tripy Documentation

nvidia/tripy-documentation

Write API documentation for nvtripy following project conventions. Use when: writing docstrings for ops or modules, adding code examples, using @export.public_api document_under paths, creating Sphinx RST cross-references, understanding the docs build pipeline.

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Install

one command, takes just this skill from the repository
npx skills add https://github.com/NVIDIA/TensorRT-Incubator --skill tripy-documentation

The instruction itself

17 sections, as written by the author

API Documentation for nvtripy

When to Use

  • Writing or updating docstrings for public API functions, classes, or modules
  • Adding working code examples to documentation
  • Choosing the correct document_under path for @export.public_api
  • Understanding how documentation is generated and built

Documentation Pipeline

  • @export.public_api(document_under="...") registers APIs in PUBLIC_APIS list
  • docs/generate_rsts.py reads PUBLIC_APIS and generates .rst files in the docs hierarchy
  • Sphinx builds the final HTML docs from those .rst files
  • Docstring code examples are extracted and validated during testing

@export.public_api Parameters

@export.public_api(
    document_under="operations/functions",   # Doc hierarchy path
    autodoc_options=[":special-members:"],    # Sphinx autodoc options
    bypass_dispatch=True,                     # Skip function registry overhead
)

document_under Path Conventions

| Path | Use For |

|------|---------|

| "operations/functions" | General tensor operations (softmax, reshape, etc.) |

| "operations/initializers" | Tensor creation (ones, zeros, full, arange) |

| "operations/modules" | Neural network modules (Linear, LayerNorm, etc.) |

| "compiling_code/compile.rst" | Compilation-related APIs |

| "compiling_code/input_info/index.rst" | InputInfo and related classes |

| "config.rst" | Configuration variables |

The path creates a directory structure: "operations/functions"operations/functions/<name>.rst.

APIs targeting the same .rst file render on the same page.

autodoc_options

  • [":special-members:"] — Include __init__, __call__, etc.
  • [":no-members:", ":no-special-members:"] — Show only the class/module itself
  • [":no-value:"] — Hide the default value of a variable

bypass_dispatch

  • True on a function: Disables the function registry's overload dispatch and type-checking (performance optimization)
  • True on a class: Bypass dispatch for ALL methods
  • ["__init__", "__call__"]: Bypass only for listed methods

Docstring Format

Functions

def my_op(input: "nvtripy.Tensor", dim: int = 0) -> "nvtripy.Tensor":
    r"""
    Brief one-line description of what the function does.

    Longer description with math if applicable:

    :math:`\text{my_op}(x) = f(x)`

    Args:
        input: The input tensor.
        dim: The dimension to operate along.

    Returns:
        A tensor of the same shape as the input.

    .. code-block:: python
        :linenos:

        input = tp.iota([2, 3], dtype=tp.float32)
        output = tp.my_op(input, dim=0)

        assert tp.allclose(output, expected)

    .. seealso:: :func:`related_func`, :class:`RelatedClass`
    """

Classes (Modules)

class MyModule(Module):
    r"""
    Brief description with math notation.

    :math:`\text{MyModule}(x) = xW^T + b`
    """

    dtype: datatype.dtype
    r"""The data type used to perform the operation."""

    weight: Tensor
    r"""The :math:`W` parameter of shape :math:`[\text{out}, \text{in}]`."""

    def __init__(self, features: int, dtype: datatype.dtype = datatype.float32) -> None:
        r"""
        Args:
            features: Size of the feature dimension.
            dtype: The data type for parameters.

        .. code-block:: python
            :linenos:

            module = tp.MyModule(3)
            module.weight = tp.iota(module.weight.shape)

            input = tp.iota((2, 3))
            output = module(input)

            assert cp.from_dlpack(output).get().shape == (2, 3)

            torch_out = torch.nn.functional.my_op(torch.from_dlpack(input))  # doc: omit
            assert np.allclose(cp.from_dlpack(output).get(), cp.from_dlpack(torch_out).get())
        """

Code Example Conventions

Required elements

  • Setup: Create inputs using tp.iota(), tp.ones(), tp.zeros(), or tp.Tensor()
  • Operation: Call the function/module under test
  • Assertion: Verify the result with assert (using tp.allclose, np.array_equal, or shape checks)

Available imports in code blocks

Code examples automatically have access to:

  • tp (nvtripy)
  • np (numpy)
  • cp (cupy)
  • torch

Special directives

  • # doc: omit — Line is excluded from rendered documentation but still executes
  • # doc: no-print-locals <var> — Suppresses automatic printing of the variable
  • :linenos: — Always include for numbered lines

Cross-references

  • :func:function_name — Link to a function
  • :class:ClassName — Link to a class
  • :math:expression — Inline LaTeX math
  • .. seealso:: :func:related`" — "See also" section at the end

Math notation

Use r""" raw strings for docstrings containing :math: to avoid backslash issues.

LaTeX examples:

  • Inline: :math:\text{softmax}(x_{i})
  • Block: Use \Large / \normalsize for fraction sizing
  • Common: :math:\bar{x} (mean), :math:\sigma^2 (variance), :math:\epsilon (epsilon)

Checklist

  • [ ] @export.public_api(document_under="...") with correct hierarchy path
  • [ ] Docstring uses r""" if it contains :math: directives
  • [ ] Args section documents all parameters with types
  • [ ] Returns section describes output shape/type
  • [ ] .. code-block:: python with :linenos: and working assertions
  • [ ] .. seealso:: links to related functions/classes
  • [ ] Field docstrings for all dataclass fields on modules
  • [ ] # doc: omit for verification-only lines that shouldn't appear in docs

How to use it

Copy the folder

Take nvidia/tripy-documentation from the repository into ~/.claude/skills for personal use, or into .claude/skills inside a project.

Check the name does not clash

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