rich_3953

{"status": "ok", "stdout": "./assets/logo.svg:6:@font-face { font-family: \"Fira Code\"; font-style: normal; font-weight: 500; font-stretch: normal; font-variant: normal; font-feature-settings: normal; src: url(\"data:font/ttf;base64,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

{"status": "ok", "stdout": "./assets/logo.svg:6:@font-face { font-family: \"Fira Code\"; font-style: normal; font-weight: 500; font-stretch: normal; font-variant: normal; font-feature-settings: normal; src: url(\"data:font/ttf;base64,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

{"status": "error", "error_type": "CommandError", "error_message": "Command failed with exit code 1", "details": {"stdout": "", "stderr": "grep: ./.git/objects/pack/pack-8fbdb6443f0d996959f11159379950449260aa9c.pack: binary file matches\ngrep: ./imgs/spinners.gif: binary file matches\n", "exit_code": 1}}

{"status": "error", "error_type": "CommandError", "error_message": "Command failed with exit code 1", "details": {"stdout": "", "stderr": "", "exit_code": 1}}

{"status": "error", "error_type": "CommandError", "error_message": "Command failed with exit code 2", "details": {"stdout": "", "stderr": "grep: /tmp/swe_work/eval4_submission_v1b/rich_3953/a/workspace: No such file or directory\n", "exit_code": 2}}

{"status": "error", "error_type": "CommandError", "error_message": "Command failed with exit code 1", "details": {"stdout": "", "stderr": "", "exit_code": 1}}

{"status": "error", "error_type": "CommandError", "error_message": "Command failed with exit code 1", "details": {"stdout": "", "stderr": "", "exit_code": 1}}

{"status": "ok", "stdout": "./tests/test_cells.py:23:        (\"\\u200d\", 0),\n./tests/test_cells.py:75:FM = \"\ud83d\udc69\\u200d\ud83d\udd27\"\n./tests/test_cells.py:164:            \"\ud83d\udc69\\u200d\ud83d\udd27\",\n./tests/test_cells.py:168:        (\"a\ud83d\udc69\\u200d\ud83d\udd27\", [(0, 1, 1), (1, 4, 2)], 3),\n./tests/test_cells.py:169:        (\"a\ud83d\udc69\\u200d\ud83d\udd27b\", [(0, 1, 1), (1, 4, 2), (4, 5, 1)], 4),\n./tests/test_text.py:529:    female_mechanic = \"\ud83d\udc69\\u200d\ud83d\udd27\"\n./tests/test_text.py:620:    female_mechanic = \"\ud83d\udc69\\u200d\ud83d\udd27\"\n./rich/_emoji_codes.py:425:    \"bald_man\": \"\ud83d\udc68\\u200d\ud83e\uddb2\",\n./rich/_emoji_codes.py:426:    \"bald_woman\": \"\ud83d\udc69\\u200d\ud83e\uddb2\",\n./rich/_emoji_codes.py:474:    \"blond-haired_man\": \"\ud83d\udc71\\u200d\u2642\ufe0f\",\n./rich/_emoji_codes.py:475:    \"blond-haired_man_dark_skin_tone\": \"\ud83d\udc71\ud83c\udfff\\u200d\u2642\ufe0f\",\n./rich/_emoji_codes.py:476:    \"blond-haired_man_light_skin_tone\": \"\ud83d\udc71\ud83c\udffb\\u200d\u2642\ufe0f\",\n./rich/_emoji_codes.py:477:    \"blond-haired_man_medium-dark_skin_tone\": \"\ud83d\udc71\ud83c\udffe\\u200d\u2642\ufe0f\",\n./rich/_emoji_codes.py:478:    \"blond-haired_man_medium-light_skin_tone\": \"\ud83d\udc71\ud83c\udffc\\u200d\u2642\ufe0f\",\n./rich/_emoji_codes.py:479:    \"blond-haired_man_medium_skin_tone\": \"\ud83d\udc71\ud83c\udffd\\u200d\u2642\ufe0f\",\n./rich/_emoji_codes.py:486:    \"blond-haired_woman\": \"\ud83d\udc71\\u200d\u2640\ufe0f\",\n./rich/_emoji_codes.py:487:    \"blond-haired_woman_dark_skin_tone\": \"\ud83d\udc71\ud83c\udfff\\u200d\u2640\ufe0f\",\n./rich/_emoji_codes.py:488:    \"blond-haired_woman_light_skin_tone\": \"\ud83d\udc71\ud83c\udffb\\u200d\u2640\ufe0f\",\n./rich/_emoji_codes.py:489:    \"blond-haired_woman_medium-dark_skin_tone\": \"\ud83d\udc71\ud83c\udffe\\u200d\u2640\ufe0f\",\n./rich/_emoji_codes.py:490:    \"blond-haired_woman_medium-light_

{"status": "ok", "filepath": "tests/test_cells.py", "content": "    \"character,size\",\n    [\n        (\"\\0\", 0),\n        (\"\\u200d\", 0),\n        (\"a\", 1),\n        (\"\ud83d\udca9\", 2),\n        (chr(917999 + 1), 0),\n    ],\n)\ndef test_get_character_cell_size(character: str, size: int) -> None:\n    \"\"\"Test single character cell size.\"\"\"\n", "start_line": 20, "end_line": 30, "total_lines": 189, "is_truncated": false}

{"status": "ok", "filepath": "tests/test_cells.py", "content": "\n    for character in \"\u308f\u3055\u3073\":\n        assert not _is_single_cell_widths(character)\n\n\n@pytest.mark.parametrize(\n    \"text,expected_spans,expected_cell_length\",\n    [\n        (\"\", [], 0),\n        (\"a\", [(0, 1, 1)], 1),\n        (\"ab\", [(0, 1, 1), (1, 2, 1)], 2),\n        (\"\ud83d\udca9\", [(0, 1, 2)], 2),\n        (\"\u308f\u3055\u3073\", [(0, 1, 2), (1, 2, 2), (2, 3, 2)], 6),\n        (\n            \"\ud83d\udc69\\u200d\ud83d\udd27\",\n            [(0, 3, 2)],\n            2,\n        ),  # 3 code points for female mechanic: female, joiner, spanner\n        (\"a\ud83d\udc69\\u200d\ud83d\udd27\", [(0, 1, 1), (1, 4, 2)], 3),\n        (\"a\ud83d\udc69\\u200d\ud83d\udd27b\", [(0, 1, 1), (1, 4, 2), (4, 5, 1)], 4),\n        (\"\u2b07\", [(0, 1, 1)], 1),\n        (\"\u2b07\ufe0f\", [(0, 2, 2)], 2),  # Variation selector, makes it double width\n        (\"\u267b\", [(0, 1, 1)], 1),\n        (\"\u267b\ufe0f\", [(0, 2, 2)], 2),\n        (\"\u267b\u267b\ufe0f\", [(0, 1, 1), (1, 3, 2)], 3),\n    ],\n)\ndef test_split_graphemes(\n    text: str, expected_spans: list[CellSpan], expected_cell_length: int\n):\n    spans, cell_length = split_graphemes(text)\n    assert cell_len(text) == expected_cell_length\n    assert spans == expected_spans\n    assert cell_length == expected_cell_length\n\n\ndef test_nerd_font():\n    \"\"\"Regression test for https://github.com/Textualize/rich/issues/3943\"\"\"\n    # Not allocated by unicode, but used by nerd fonts\n    assert cell_len(\"\\U000f024d\") == 1\n", "start_line": 150, "end_line": 189, "total_lines": 189, "is_truncated": false}

{"status": "ok", "query": "split_graphemes", "results": [{"node_name": "rich.cells.split_graphemes", "code": "def split_graphemes(\n    text: str, unicode_version: str = \"auto\"\n) -> \"tuple[list[CellSpan], int]\":\n    \"\"\"Divide text into spans that define a single grapheme.\n\n    Args:\n        text: String to split.\n        unicode_version: Unicode version, `\"auto\"` to auto detect, `\"latest\"` for the latest unicode version.\n\n    Returns:\n        List of spans.\n    \"\"\"\n\n    cell_table = load_cell_table(unicode_version)\n    codepoint_count = len(text)\n    index = 0\n    last_measured_character: str | None = None\n\n    total_width = 0\n    spans: list[tuple[int, int, int]] = []\n    SPECIAL = {\"\\u200d\", \"\\ufe0f\"}\n    while index < codepoint_count:\n        if (character := text[index]) in SPECIAL:\n            if character == \"\\u200d\":\n                # zero width joiner\n                index += 2\n                if spans:\n                    start, _end, cell_length = spans[-1]\n                    spans[-1] = (start, index, cell_length)\n            elif last_measured_character:\n                # variation selector 16\n                index += 1\n                if spans:\n                    start, _end, cell_length = spans[-1]\n                    if last_measured_character in cell_table.narrow_to_wide:\n                        last_measured_character = None\n                        cell_length += 1\n                        total_width += 1\n                    spans[-1] = (start, index, cell_length)\n            continue\n\n        if character_width := get_character_cell_size(character, unicode_version)", "similarity": 1.0}, {"node_name": "rich.cells.get_character_cell_size", "code": "def get_character_cell_size(character: str, unicode_version: str = \"auto\") -> int:\n    \"\"\"Get the cell size of a character.\n\n    Args:\n        character (str): A single character.\n        unicode_version: Unicode version, `\"auto\"`

{"status": "ok", "filepath": "rich/cells.py", "content": "from __future__ import annotations\n\nfrom functools import lru_cache\nfrom operator import itemgetter\nfrom typing import Callable, NamedTuple, Sequence, Tuple\n\nfrom rich._unicode_data import load as load_cell_table\n\nCellSpan = Tuple[int, int, int]\n\n_span_get_cell_len = itemgetter(2)\n\n# Ranges of unicode ordinals that produce a 1-cell wide character\n# This is non-exhaustive, but covers most common Western characters\n_SINGLE_CELL_UNICODE_RANGES: list[tuple[int, int]] = [\n    (0x20, 0x7E),  # Latin (excluding non-printable)\n    (0xA0, 0xAC),\n    (0xAE, 0x002FF),\n    (0x00370, 0x00482),  # Greek / Cyrillic\n    (0x02500, 0x025FC),  # Box drawing, box elements, geometric shapes\n    (0x02800, 0x028FF),  # Braille\n]\n\n# A frozen set of characters that are a single cell wide\n_SINGLE_CELLS = frozenset(\n    [\n        character\n        for _start, _end in _SINGLE_CELL_UNICODE_RANGES\n        for character in map(chr, range(_start, _end + 1))\n    ]\n)\n\n# When called with a string this will return True if all\n# characters are single-cell, otherwise False\n_is_single_cell_widths: Callable[[str], bool] = _SINGLE_CELLS.issuperset\n\n\nclass CellTable(NamedTuple):\n    \"\"\"Contains unicode data required to measure the cell widths of glyphs.\"\"\"\n\n    unicode_version: str\n    widths: Sequence[tuple[int, int, int]]\n    narrow_to_wide: frozenset[str]\n\n\n@lru_cache(maxsize=4096)\ndef get_character_cell_size(character: str, unicode_version: str = \"auto\") -> int:\n    \"\"\"Get the cell size of a character.\n\n    Args:\n        character (str): A single character.\n        unicode_version: Unicode version, `\"auto\"` to auto detect, `\"latest\"` for the latest unicode version.\n\n    Returns:\n        int: Number of cells (0, 1 or 2) occupied by that character.\n    \"\"\"\n    codepoint = ord(character)\n    table = load_cell_table(unicode_version).widths\n    if codepoint > table[-1][1]:\n  

{"status": "ok", "filepath": "rich/cells.py", "content": "    \"\"\"Get the number of cells required to display text.\n\n    This method always caches, which may use up a lot of memory. It is recommended to use\n    `cell_len` over this method.\n\n    Args:\n        text (str): Text to display.\n        unicode_version: Unicode version, `\"auto\"` to auto detect, `\"latest\"` for the latest unicode version.\n\n    Returns:\n        int: Get the number of cells required to display text.\n    \"\"\"\n    return _cell_len(text, unicode_version)\n\n\ndef cell_len(text: str, unicode_version: str = \"auto\") -> int:\n    \"\"\"Get the cell length of a string (length as it appears in the terminal).\n\n    Args:\n        text: String to measure.\n        unicode_version: Unicode version, `\"auto\"` to auto detect, `\"latest\"` for the latest unicode version.\n\n    Returns:\n        Length of string in terminal cells.\n    \"\"\"\n    if len(text) < 512:\n        return cached_cell_len(text, unicode_version)\n    return _cell_len(text, unicode_version)\n\n\ndef _cell_len(text: str, unicode_version: str) -> int:\n    \"\"\"Get the cell length of a string (length as it appears in the terminal).\n\n    Args:\n        text: String to measure.\n        unicode_version: Unicode version, `\"auto\"` to auto detect, `\"latest\"` for the latest unicode version.\n\n    Returns:\n        Length of string in terminal cells.\n    \"\"\"\n\n", "start_line": 80, "end_line": 120, "total_lines": 325, "is_truncated": false}

{"status": "ok", "filepath": "rich/cells.py", "content": "    if _is_single_cell_widths(text):\n        return len(text)\n\n    # \"\\u200d\" is zero width joiner\n    # \"\\ufe0f\" is variation selector 16\n    if \"\\u200d\" not in text and \"\\ufe0f\" not in text:\n        # Simplest case with no unicode stuff that changes the size\n        return sum(\n            get_character_cell_size(character, unicode_version) for character in text\n        )\n\n    cell_table = load_cell_table(unicode_version)\n    total_width = 0\n    last_measured_character: str | None = None\n\n    SPECIAL = {\"\\u200d\", \"\\ufe0f\"}\n\n    iter_characters = iter(text)\n\n    for character in iter_characters:\n        if character in SPECIAL:\n            if character == \"\\u200d\":\n                next(iter_characters)\n            elif last_measured_character:\n                total_width += last_measured_character in cell_table.narrow_to_wide\n                last_measured_character = None\n        else:\n            if character_width := get_character_cell_size(character, unicode_version):\n                last_measured_character = character\n                total_width += character_width\n\n    return total_width\n\n\ndef split_graphemes(\n    text: str, unicode_version: str = \"auto\"\n) -> \"tuple[list[CellSpan], int]\":\n    \"\"\"Divide text into spans that define a single grapheme.\n\n    Args:\n        text: String to split.\n        unicode_version: Unicode version, `\"auto\"` to auto detect, `\"latest\"` for the latest unicode version.\n\n    Returns:\n        List of spans.\n    \"\"\"\n\n    cell_table = load_cell_table(unicode_version)\n    codepoint_count = len(text)\n    index = 0\n", "start_line": 121, "end_line": 170, "total_lines": 325, "is_truncated": false}

{"status": "ok", "filepath": "rich/cells.py", "content": "    last_measured_character: str | None = None\n\n    total_width = 0\n    spans: list[tuple[int, int, int]] = []\n    SPECIAL = {\"\\u200d\", \"\\ufe0f\"}\n    while index < codepoint_count:\n        if (character := text[index]) in SPECIAL:\n            if character == \"\\u200d\":\n                # zero width joiner\n                index += 2\n                if spans:\n                    start, _end, cell_length = spans[-1]\n                    spans[-1] = (start, index, cell_length)\n            elif last_measured_character:\n                # variation selector 16\n                index += 1\n                if spans:\n                    start, _end, cell_length = spans[-1]\n                    if last_measured_character in cell_table.narrow_to_wide:\n                        last_measured_character = None\n                        cell_length += 1\n                        total_width += 1\n                    spans[-1] = (start, index, cell_length)\n            continue\n\n        if character_width := get_character_cell_size(character, unicode_version):\n            last_measured_character = character\n            spans.append((index, index := index + 1, character_width))\n            total_width += character_width\n        elif spans:\n            # zero width characters are associated with the previous character\n            start, _end, cell_length = spans[-1]\n            spans[-1] = (start, index := index + 1, cell_length)\n\n    return (spans, total_width)\n\n\ndef _split_text(\n    text: str, cell_position: int, unicode_version: str = \"auto\"\n) -> tuple[str, str]:\n    \"\"\"Split text by cell position.\n\n    If the cell position falls within a double width character, it is converted to two spaces.\n\n    Args:\n        text: Text to split.\n        cell_position Offset in cells.\n        unicode_version: Unicode version, `\"auto\"` to auto detect, `\"latest\"` for the latest unicode versi

{"status": "ok", "stdout": "([], 0)\n", "exit_code": 0}

{"status": "ok", "stdout": "([(0, 3, 1)], 1)\n", "exit_code": 0}

{"status": "ok", "stdout": "([(0, 3, 1)], 1)\n", "exit_code": 0}

{"status": "ok", "filepath": "rich/cells.py", "content": "                index += 2\n                if spans:\n                    start, _end, cell_length = spans[-1]\n                    spans[-1] = (start, index, cell_length)\n            elif last_measured_character:\n                # variation selector 16\n                index += 1\n                if spans:\n                    start, _end, cell_length = spans[-1]\n                    if last_measured_character in cell_table.narrow_to_wide:\n                        last_measured_character = None\n                        cell_length += 1\n                        total_width += 1\n                    spans[-1] = (start, index, cell_length)\n            continue\n\n        if character_width := get_character_cell_size(character, unicode_version):\n            last_measured_character = character\n            spans.append((index, index := index + 1, character_width))\n            total_width += character_width\n        elif spans:\n            # zero width characters are associated with the previous character\n            start, _end, cell_length = spans[-1]\n            spans[-1] = (start, index := index + 1, cell_length)\n\n    return (spans, total_width)\n\n\ndef _split_text(\n    text: str, cell_position: int, unicode_version: str = \"auto\"\n) -> tuple[str, str]:\n", "start_line": 180, "end_line": 210, "total_lines": 325, "is_truncated": false}

{"status": "error", "error_type": "FileEditError", "error_message": "old_string not found in file (tried exact, flexible and regex matching)"}

{"status": "ok", "filepath": "rich/cells.py", "content": "                index += 2\n                if spans:\n                    start, _end, cell_length = spans[-1]\n                    spans[-1] = (start, index, cell_length)\n            elif last_measured_character:\n                # variation selector 16\n                index += 1\n                if spans:\n                    start, _end, cell_length = spans[-1]\n                    if last_measured_character in cell_table.narrow_to_wide:\n                        last_measured_character = None\n                        cell_length += 1\n                        total_width += 1\n                    spans[-1] = (start, index, cell_length)\n            continue\n\n        if character_width := get_character_cell_size(character, unicode_version):\n            last_measured_character = character\n            spans.append((index, index := index + 1, character_width))\n            total_width += character_width\n        elif spans:\n", "start_line": 180, "end_line": 200, "total_lines": 325, "is_truncated": false}

{"status": "error", "error_type": "FileEditError", "error_message": "old_string not found in file (tried exact, flexible and regex matching)"}

{"status": "ok", "filepath": "rich/cells.py", "content": "    index = 0\n    last_measured_character: str | None = None\n\n    total_width = 0\n    spans: list[tuple[int, int, int]] = []\n    SPECIAL = {\"\\u200d\", \"\\ufe0f\"}\n    while index < codepoint_count:\n        if (character := text[index]) in SPECIAL:\n            if character == \"\\u200d\":\n                # zero width joiner\n                index += 2\n                if spans:\n                    start, _end, cell_length = spans[-1]\n                    spans[-1] = (start, index, cell_length)\n            elif last_measured_character:\n                # variation selector 16\n                index += 1\n                if spans:\n                    start, _end, cell_length = spans[-1]\n                    if last_measured_character in cell_table.narrow_to_wide:\n                        last_measured_character = None\n                        cell_length += 1\n                        total_width += 1\n                    spans[-1] = (start, index, cell_length)\n            continue\n\n        if character_width := get_character_cell_size(character, unicode_version):\n            last_measured_character = character\n            spans.append((index, index := index + 1, character_width))\n            total_width += character_width\n        elif spans:\n", "start_line": 170, "end_line": 200, "total_lines": 325, "is_truncated": false}

{"status": "error", "error_type": "FileEditError", "error_message": "old_string not found in file (tried exact, flexible and regex matching)"}

{"status": "ok", "filepath": "rich/cells.py", "content": "    index = 0\n    last_measured_character: str | None = None\n\n    total_width = 0\n    spans: list[tuple[int, int, int]] = []\n    SPECIAL = {\"\\u200d\", \"\\ufe0f\"}\n    while index < codepoint_count:\n        if (character := text[index]) in SPECIAL:\n            if character == \"\\u200d\":\n                # zero width joiner\n                index += 2\n                if spans:\n                    start, _end, cell_length = spans[-1]\n                    spans[-1] = (start, index, cell_length)\n            elif last_measured_character:\n                # variation selector 16\n                index += 1\n                if spans:\n                    start, _end, cell_length = spans[-1]\n                    if last_measured_character in cell_table.narrow_to_wide:\n                        last_measured_character = None\n                        cell_length += 1\n                        total_width += 1\n                    spans[-1] = (start, index, cell_length)\n            continue\n\n        if character_width := get_character_cell_size(character, unicode_version):\n            last_measured_character = character\n            spans.append((index, index := index + 1, character_width))\n            total_width += character_width\n        elif spans:\n", "start_line": 170, "end_line": 200, "total_lines": 325, "is_truncated": false}