# This file defines how PyOxidizer application building and packaging is
# performed. See the pyoxidizer crate's documentation for extensive
# documentation on this file format.

# Obtain the default PythonDistribution for our build target. We link
# this distribution into our produced executable and extract the Python
# standard library from it.
def make_dist():
    return default_python_distribution()

# Configuration files consist of functions which define build "targets."
# This function creates a Python executable and installs it in a destination
# directory.
def make_exe(dist):
    # This variable defines the configuration of the
    # embedded Python interpreter.
    python_config = PythonInterpreterConfig(
        #     bytes_warning=0,
        #     dont_write_bytecode=True,
        #     ignore_environment=True,
        #     inspect=False,
        #     interactive=False,
        #     isolated=False,
        #     legacy_windows_fs_encoding=False,
        #     legacy_windows_stdio=False,
        #     no_site=True,
        #     no_user_site_directory=True,
        #     optimize_level=0,
        #     parser_debug=False,
        #     stdio_encoding=None,
        #     unbuffered_stdio=False,
        #     filesystem_importer=False,
        #     sys_frozen=False,
        #     sys_meipass=False,
        #     sys_paths=None,
        #     raw_allocator=None,
        #     terminfo_resolution="dynamic",
        #     terminfo_dirs=None,
        #     use_hash_seed=False,
        #     verbose=0,
        #     write_modules_directory_env=None,
        #     run_eval=None,
        #     run_module=None,
        #     run_noop=False,
        #     run_repl=True,
    )

    # The run_eval, run_module, run_noop, and run_repl arguments are mutually
    # exclusive controls over what the interpreter should do once it initializes.
    #
    # run_eval -- Run the specified string value via `eval()`.
    # run_module -- Import the specified module as __main__ and run it.
    # run_noop -- Do nothing.
    # run_repl -- Start a Python REPL.
    #
    # These arguments can be ignored if you are providing your own Rust code for
    # starting the interpreter, as Rust code has full control over interpreter
    # behavior.

    # Produce a PythonExecutable from a Python distribution, embedded
    # resources, and other options. The returned object represents the
    # standalone executable that will be built.
    exe = dist.to_python_executable(
        name = "hgcli",
        config = python_config,
        # Embed all extension modules, making this a fully-featured Python.
        extension_module_filter = "all",

        # Only package the minimal set of extension modules needed to initialize
        # a Python interpreter. Many common packages in Python's standard
        # library won't work with this setting.
        #extension_module_filter='minimal',

        # Only package extension modules that don't require linking against
        # non-Python libraries. e.g. will exclude support for OpenSSL, SQLite3,
        # other features that require external libraries.
        #extension_module_filter='no-libraries',

        # Only package extension modules that don't link against GPL licensed
        # libraries.
        #extension_module_filter='no-gpl',

        # Include Python module sources. This isn't strictly required and it does
        # make binary sizes larger. But having the sources can be useful for
        # activities such as debugging.
        include_sources = True,

        # Whether to include non-module resource data/files.
        include_resources = False,

        # Do not include functionality for testing Python itself.
        include_test = False,
    )

    # Invoke `pip install` with our Python distribution to install a single package.
    # `pip_install()` returns objects representing installed files.
    # `add_in_memory_python_resources()` adds these objects to the binary,
    # marking them for in-memory loading.
    #exe.add_in_memory_python_resources(dist.pip_install(["appdirs"]))

    # Invoke `pip install` using a requirements file and add the collected resources
    # to our binary.
    #exe.add_in_memory_python_resources(dist.pip_install(["-r", "requirements.txt"]))

    # Read Python files from a local directory and add them to our embedded
    # context, taking just the resources belonging to the `foo` and `bar`
    # Python packages.
    #exe.add_in_memory_python_resources(dist.read_package_root(
    #    path="/src/mypackage",
    #    packages=["foo", "bar"],
    #))

    # Discover Python files from a virtualenv and add them to our embedded
    # context.
    #exe.add_in_memory_python_resources(dist.read_virtualenv(path="/path/to/venv"))

    # Filter all resources collected so far through a filter of names
    # in a file.
    #exe.filter_from_files(files=["/path/to/filter-file"]))

    # Return our `PythonExecutable` instance so it can be built and
    # referenced by other consumers of this target.
    return exe

def make_embedded_resources(exe):
    return exe.to_embedded_resources()

def make_install(exe):
    # Create an object that represents our installed application file layout.
    files = FileManifest()

    # Add the generated executable to our install layout in the root directory.
    files.add_python_resource(".", exe)

    return files

# Tell PyOxidizer about the build targets defined above.
register_target("dist", make_dist)
register_target("exe", make_exe, depends = ["dist"], default = True)
register_target("resources", make_embedded_resources, depends = ["exe"], default_build_script = True)
register_target("install", make_install, depends = ["exe"])

# Resolve whatever targets the invoker of this configuration file is requesting
# be resolved.
resolve_targets()

# END OF COMMON USER-ADJUSTED SETTINGS.
#
# Everything below this is typically managed by PyOxidizer and doesn't need
# to be updated by people.

PYOXIDIZER_VERSION = "0.7.0-pre"
PYOXIDIZER_COMMIT = "c772a1379c3026314eda1c8ea244b86c0658951d"