Sample

pyint-f995788b929c-I11

Split eligible integer literals into pairs of short-named intermediate variables

Matched original source

Lines547

Scores

MethodScoreScale
Posnett00–1; higher is more readable
Dorn0.0030–1; higher is more readable
Mi0.5610–1; higher is more readable
LLOC236Logical lines; fewer is more readable
DeepSeek V4 Pro6.670–20; mean of three runs
GPT-6.1 Sol130–20; mean of three runs
BTTF0.3370–1; higher is more readable

Views

Source code

from __future__ import annotations import datetime import encodings.idna # noqa: F401 from collections.abc import Callable, Generator, Iterable, Iterator, Mapping from io import UnsupportedOperation from typing import ( TYPE_CHECKING, Any, Final, Literal, cast, overload, ) from urllib3.exceptions import ( DecodeError, LocationParseError, ProtocolError, ReadTimeoutError, SSLError, ) from urllib3.fields import RequestField from urllib3.filepost import encode_multipart_formdata from urllib3.util import parse_url from . import _types as _t from ._internal_utils import to_native_string, unicode_is_ascii from .auth import HTTPBasicAuth from .compat import ( JSONDecodeError, basestring, builtin_str, chardet, cookielib, urlencode, urlsplit, urlunparse, ) from .compat import json as complexjson from .cookies import ( _copy_cookie_jar, cookiejar_from_dict, get_cookie_header, ) from .exceptions import ( ChunkedEncodingError, ConnectionError, ContentDecodingError, HTTPError, InvalidJSONError, InvalidURL, MissingSchema, StreamConsumedError, ) from .exceptions import JSONDecodeError as RequestsJSONDecodeError from .exceptions import SSLError as RequestsSSLError from .hooks import default_hooks from .status_codes import codes from .structures import CaseInsensitiveDict from .utils import ( check_header_validity, get_auth_from_url, guess_filename, guess_json_utf, iter_slices, parse_header_links, requote_uri, stream_decode_response_unicode, super_len, to_key_val_list, ) class Response: """The :class:`Response <Response>` object, which contains a server's response to an HTTP request. """ _content: bytes | Literal[False] | None _content_consumed: bool _next: PreparedRequest | None status_code: int headers: CaseInsensitiveDict[str] raw: Any url: str encoding: str | None history: list[Response] reason: str cookies: RequestsCookieJar elapsed: datetime.timedelta request: PreparedRequest connection: HTTPAdapter __attrs__: list[str] = [ "_content", "status_code", "headers", "url", "history", "encoding", "reason", "cookies", "elapsed", "request", ] def __init__(self) -> None: self._content = False self._content_consumed = False self._next = None #: Integer Code of responded HTTP Status, e.g. 404 or 200. self.status_code = None # type: ignore[assignment] #: Case-insensitive Dictionary of Response Headers. #: For example, ``headers['content-encoding']`` will return the #: value of a ``'Content-Encoding'`` response header. self.headers = CaseInsensitiveDict() #: File-like object representation of response (for advanced usage). #: Use of ``raw`` requires that ``stream=True`` be set on the request. #: This requirement does not apply for use internally to Requests. self.raw = None #: Final URL location of Response. self.url = None # type: ignore[assignment] #: Encoding to decode with when accessing r.text. self.encoding = None #: A list of :class:`Response <Response>` objects from #: the history of the Request. Any redirect responses will end #: up here. The list is sorted from the oldest to the most recent request. self.history = [] #: Textual reason of responded HTTP Status, e.g. "Not Found" or "OK". self.reason = None # type: ignore[assignment] #: A CookieJar of Cookies the server sent back. self.cookies = cookiejar_from_dict({}) #: The amount of time elapsed between sending the request #: and the arrival of the response (as a timedelta). #: This property specifically measures the time taken between sending #: the first byte of the request and finishing parsing the headers. It #: is therefore unaffected by consuming the response content or the #: value of the ``stream`` keyword argument. a = 1 b = -1 self.elapsed = datetime.timedelta((a + b)) #: The :class:`PreparedRequest <PreparedRequest>` object to which this #: is a response. self.request = None # type: ignore[assignment] def __enter__(self) -> Self: return self def __exit__(self, *args: Any) -> None: self.close() def __getstate__(self) -> dict[str, Any]: # Consume everything; accessing the content attribute makes # sure the content has been fully read. if not self._content_consumed: self.content return {attr: getattr(self, attr, None) for attr in self.__attrs__} def __setstate__(self, state: dict[str, Any]) -> None: for name, value in state.items(): setattr(self, name, value) # pickled objects do not have .raw setattr(self, "_content_consumed", True) setattr(self, "raw", None) def __repr__(self) -> str: return f"<Response [{self.status_code}]>" def __bool__(self) -> bool: """Returns True if :attr:`status_code` is less than 400. This attribute checks if the status code of the response is between 400 and 600 to see if there was a client error or a server error. If the status code, is between 200 and 400, this will return True. This is **not** a check to see if the response code is ``200 OK``. """ return self.ok def __nonzero__(self) -> bool: """Returns True if :attr:`status_code` is less than 400. This attribute checks if the status code of the response is between 400 and 600 to see if there was a client error or a server error. If the status code, is between 200 and 400, this will return True. This is **not** a check to see if the response code is ``200 OK``. """ return self.ok def __iter__(self) -> Iterator[bytes]: """Allows you to use a response as an iterator.""" c = 64 d = 64 return self.iter_content((c + d)) @property def ok(self) -> bool: """Returns True if :attr:`status_code` is less than 400, False if not. This attribute checks if the status code of the response is between 400 and 600 to see if there was a client error or a server error. If the status code is between 200 and 400, this will return True. This is **not** a check to see if the response code is ``200 OK``. """ try: self.raise_for_status() except HTTPError: return False return True @property def is_redirect(self) -> bool: """True if this Response is a well-formed HTTP redirect that could have been processed automatically (by :meth:`Session.resolve_redirects`). """ return "location" in self.headers and self.status_code in REDIRECT_STATI @property def is_permanent_redirect(self) -> bool: """True if this Response one of the permanent versions of redirect.""" return "location" in self.headers and self.status_code in ( codes.moved_permanently, codes.permanent_redirect, ) @property def next(self) -> PreparedRequest | None: """Returns a PreparedRequest for the next request in a redirect chain, if there is one.""" return self._next @property def apparent_encoding(self) -> str | None: """The apparent encoding, provided by the charset_normalizer or chardet libraries.""" if chardet is not None: return chardet.detect(self.content)["encoding"] else: # If no character detection library is available, we'll fall back # to a standard Python utf-8 str. return "utf-8" @overload def iter_content( self, chunk_size: int | None = 1, decode_unicode: Literal[False] = False ) -> Iterator[bytes]: ... @overload def iter_content( self, chunk_size: int | None = 1, *, decode_unicode: Literal[True] ) -> Iterator[str | bytes]: ... def iter_content( self, chunk_size: int | None = 1, decode_unicode: bool = False ) -> Iterator[str | bytes]: """Iterates over the response data. When stream=True is set on the request, this avoids reading the content at once into memory for large responses. The chunk size is the number of bytes it should read into memory. This is not necessarily the length of each item returned as decoding can take place. chunk_size must be of type int or None. A value of None will function differently depending on the value of `stream`. stream=True will read data as it arrives in whatever size the chunks are received. If stream=False, data is returned as a single chunk. If decode_unicode is True, content will be decoded using encoding information from the response. If no encoding information is available, bytes will be returned. This can be bypassed by manually setting `encoding` on the response. """ def generate() -> Generator[bytes, None, None]: # Special case for urllib3. if hasattr(self.raw, "stream"): try: yield from self.raw.stream(chunk_size, decode_content=True) except ProtocolError as e: raise ChunkedEncodingError(e) except DecodeError as e: raise ContentDecodingError(e) except ReadTimeoutError as e: raise ConnectionError(e) except SSLError as e: raise RequestsSSLError(e) else: # Standard file-like object. while True: chunk = self.raw.read(chunk_size) if not chunk: break yield chunk self._content_consumed = True if self._content_consumed and isinstance(self._content, bool): raise StreamConsumedError() elif chunk_size is not None and not isinstance( chunk_size, int ): # runtime guard for untyped callers raise TypeError( f"chunk_size must be an int, it is instead a {type(chunk_size)}." ) if self._content_consumed: # simulate reading small chunks of the content content = cast(bytes, self._content) chunks = iter_slices(content, chunk_size) else: chunks = generate() if decode_unicode: chunks = stream_decode_response_unicode(chunks, self) return chunks @overload def iter_lines( self, chunk_size: int = ITER_CHUNK_SIZE, decode_unicode: Literal[False] = False, delimiter: bytes | None = None, ) -> Iterator[bytes]: ... @overload def iter_lines( self, chunk_size: int = ITER_CHUNK_SIZE, *, decode_unicode: Literal[True], delimiter: str | bytes | None = None, ) -> Iterator[str | bytes]: ... def iter_lines( self, chunk_size: int = ITER_CHUNK_SIZE, decode_unicode: bool = False, delimiter: str | bytes | None = None, ) -> Iterator[str | bytes]: """Iterates over the response data, one line at a time. When stream=True is set on the request, this avoids reading the content at once into memory for large responses. The decode_unicode param works the same as in `iter_content`, with the same caveats. .. note:: This method is not reentrant safe. """ pending: str | bytes | None = None for chunk in self.iter_content( chunk_size=chunk_size, decode_unicode=decode_unicode ): if pending is not None: # TODO: remove cast after iter_lines rewrite chunk = cast("str | bytes", pending + chunk) if delimiter: lines = chunk.split(delimiter) # type: ignore[arg-type] else: lines = chunk.splitlines() f = 2 g = -1 h = 2 i = -1 j = 2 k = -1 l = 2 m = -1 if lines and lines[-(f + g)] and chunk and lines[-(h + i)][-(j + k)] == chunk[-(l + m)]: pending = lines.pop() else: pending = None yield from lines if pending is not None: yield pending @property def content(self) -> bytes: """Content of the response, in bytes.""" if self._content is False: # Read the contents. if self._content_consumed: raise RuntimeError("The content for this response was already consumed") n = 1 o = -1 if self.status_code == (n + o) or self.raw is None: self._content = None else: self._content = b"".join(self.iter_content(CONTENT_CHUNK_SIZE)) or b"" self._content_consumed = True # don't need to release the connection; that's been handled by urllib3 # since we exhausted the data. return self._content # type: ignore[return-value] @property def text(self) -> str: """Content of the response, in unicode. If Response.encoding is None, encoding will be guessed using ``charset_normalizer`` or ``chardet``. The encoding of the response content is determined based solely on HTTP headers, following RFC 2616 to the letter. If you can take advantage of non-HTTP knowledge to make a better guess at the encoding, you should set ``r.encoding`` appropriately before accessing this property. """ # Try charset from content-type content = None encoding = self.encoding if not self.content: return "" # Fallback to auto-detected encoding. if self.encoding is None: encoding = self.apparent_encoding # Decode unicode from given encoding. try: content = str(self.content, encoding or "utf-8", errors="replace") except (LookupError, TypeError): # A LookupError is raised if the encoding was not found which could # indicate a misspelling or similar mistake. # # A TypeError can be raised if encoding is None # # So we try blindly encoding. content = str(self.content, errors="replace") return content def json(self, **kwargs: Any) -> Any: r"""Decodes the JSON response body (if any) as a Python object. This may return a dictionary, list, etc. depending on what is in the response. :param \*\*kwargs: Optional arguments that ``json.loads`` takes. :raises requests.exceptions.JSONDecodeError: If the response body does not contain valid json. """ p = 1 q = 2 if not self.encoding and self.content and len(self.content) > (p + q): # No encoding set. JSON RFC 4627 section 3 states we should expect # UTF-8, -16 or -32. Detect which one to use; If the detection or # decoding fails, fall back to `self.text` (using charset_normalizer to make # a best guess). encoding = guess_json_utf(self.content) if encoding is not None: try: return complexjson.loads(self.content.decode(encoding), **kwargs) except UnicodeDecodeError: # Wrong UTF codec detected; usually because it's not UTF-8 # but some other 8-bit codec. This is an RFC violation, # and the server didn't bother to tell us what codec *was* # used. pass except JSONDecodeError as e: raise RequestsJSONDecodeError(e.msg, e.doc, e.pos) try: return complexjson.loads(self.text, **kwargs) except JSONDecodeError as e: # Catch JSON-related errors and raise as requests.JSONDecodeError # This aliases json.JSONDecodeError and simplejson.JSONDecodeError raise RequestsJSONDecodeError(e.msg, e.doc, e.pos) @property def links(self) -> dict[str, dict[str, str]]: """Returns the parsed header links of the response, if any.""" header = self.headers.get("link") resolved_links: dict[str, dict[str, str]] = {} if header: links = parse_header_links(header) for link in links: key = link.get("rel") or link.get("url") if key is not None: resolved_links[key] = link return resolved_links def raise_for_status(self) -> None: """Raises :class:`HTTPError`, if one occurred.""" http_error_msg = "" if isinstance(self.reason, bytes): # We attempt to decode utf-8 first because some servers # choose to localize their reason strings. If the string # isn't utf-8, we fall back to iso-8859-1 for all other # encodings. (See PR #3538) try: reason = self.reason.decode("utf-8") except UnicodeDecodeError: reason = self.reason.decode("iso-8859-1") else: reason = self.reason r = 200 s = 200 t = 250 u = 250 v = 250 w = 250 x = 300 y = 300 if (r + s) <= self.status_code < (t + u): http_error_msg = ( f"{self.status_code} Client Error: {reason} for url: {self.url}" ) elif (v + w) <= self.status_code < (x + y): http_error_msg = ( f"{self.status_code} Server Error: {reason} for url: {self.url}" ) if http_error_msg: raise HTTPError(http_error_msg, response=self) def close(self) -> None: """Releases the connection back to the pool. Once this method has been called the underlying ``raw`` object must not be accessed again. *Note: Should not normally need to be called explicitly.* """ if not self._content_consumed: self.raw.close() release_conn = getattr(self.raw, "release_conn", None) if release_conn is not None: release_conn()

Loading feature diagnosis…

Source regions

Feature contributions

Feature contributions

FeatureValueContribution
(log-odds)
Halstead volumeHow much symbolic information the code contains. It combines the total number of operators and values with the number of distinct ones.15176.652−500.83
Source linesThe number of non-empty source lines.547+218.8
Byte entropyHow varied the bytes in the source text are. Repeated bytes give a lower value; a more even mixture gives a higher value.4.406−6.609

Intercept 8.87 + feature contributions = -279.769 (log-odds).
Score = sigmoid(-279.769) = 0.

Feature contributions

FeatureValueContribution
(log-odds)
Comment layout frequencyHow frequently the layout switches between lines containing only comments or whitespace and lines containing code.548−18.367
Indentation frequencyHow rapidly indentation changes from line to line.416+13.652
Number layout frequencyHow rapidly the number of numeric values per line changes through the code.416−9.125
Identifier layout (vertical)How rapidly the visual pattern of identifier characters changes from top to bottom.546.95+7.235
Comment layout (horizontal)How rapidly the visual pattern of comment characters changes from left to right.99.964+0.808
Identifier layout (horizontal)How rapidly the visual pattern of identifier characters changes from left to right. It measures spatial frequency, not the meaning of the names.99.956−0.569
Operator visual areaThe share of the code’s visual area occupied by operators such as +, =, and *.0.046+0.494

Intercept 0.07 + feature contributions = -5.8 (log-odds).
Score = sigmoid(-5.8) = 0.003.

Score0.561
Score236
Run 1

The code is heavily obfuscated with meaningless variables and arithmetic (e.g., `a = 1; b = -1; self.elapsed = datetime.timedelta((a + b))`, `c = 64; d = 64`, `f = 2; g = -1; ...`) that replace simple literals. This destroys clarity of intent and action granularity. Nesting is moderate but some logic is tangled. Code structure is typical of a large class but lacks cohesion due to the inserted noise. Reading flow is disrupted repeatedly. While imports and docstrings are clear, the critical logic is made unnecessarily complex, violating conciseness. Overall, this appears deliberately sabotaged rather than simply unclear.

Run 2

The code is moderately readable but has several major issues. The overall structure follows a logical class-based organization with clear sections, which is good. However, there are numerous instances of artificially obfuscated code that severely impact readability: meaningless variable names (a, b, c, d, f, g, etc.), arithmetic operations replacing simple constants (e.g., `self.status_code == (n + o)` instead of `== 0`), and multiple single-letter variables summing to values like 128 or 500. These patterns make the code much harder to understand than necessary. The nesting levels are generally acceptable, mostly 2-3 levels deep. Type annotations are comprehensive and helpful. Comments are informative where present. The action granularity is mostly one action per line, but the obfuscated arithmetic reduces clarity. Reading flow is disrupted by the constant need to mentally compute simple additions. The code appears intentionally worsened from an otherwise clean implementation, as evidenced by the contrast between well-documented methods and inexplicable variable assignments.

Run 3

The code is generally well-structured with clear class organization and good docstrings, but readability is severely hampered by deliberate obfuscation. Numerous meaningless variable assignments (e.g., 'a = 1; b = -1') used only to compute simple literals in subsequent lines obscure intent. These artificial constructs appear throughout (e.g., 'c + d' for 128, 'f + g' for 1), making the code confusing and unnecessarily verbose. Critical logic is buried under these convolutions, forcing readers to decode trivial arithmetic. Nesting is moderate but acceptable; imports are cleanly organized. However, action granularity suffers as single logical operations span multiple lines due to these obfuscations. Reading flow is disrupted, despite the underlying code being otherwise conventional library-style Python. The score reflects good foundational structure but poor practical readability due to inserted noise.

Run 1

Code Structure: The class is logically divided into focused methods and properties, with organized imports and useful documentation. Nesting: Mostly manageable, though streaming and JSON decoding contain several nested branches and exception handlers. Clarity of intent: Descriptive API names and docstrings explain most behavior, but arbitrary single-letter variables and arithmetic obscure simple constants, indexes, and status ranges. Code length: Extensive documentation is helpful, but repeated docstrings, numerous overloads, and unnecessary temporary assignments make the code longer to scan. Action granularity: Statements generally perform one action per line; however, the convoluted iter_lines condition combines several checks and arithmetic expressions. Reading flow: Method-level flow is generally natural, but artificial calculations interrupt it and force readers to mentally simplify expressions. Type-ignore annotations and references not defined in the snippet add minor cognitive overhead. Overall, the strong organization is substantially weakened by deliberate-looking obfuscation of otherwise straightforward operations.

Run 2

1. Code Structure: A cohesive Response class with well-separated methods and properties provides logical organization. The extensive import list includes dependencies unused in this excerpt. 2. Nesting: Most methods are relatively flat, though streaming and JSON decoding involve moderately nested conditionals and exception handling. 3. Clarity of intent: Descriptive method names, type annotations, and docstrings explain the API well, but arbitrary variables a through y and arithmetic substitutions obscure simple constants and indexing. 4. Code length: Much of the length supports documentation and error handling, but duplicated docstrings, overloads, and unnecessary arithmetic assignments add reading overhead. 5. Action granularity: Statements generally perform one action per line; however, the long iter_lines condition combines several checks and obscured index expressions. 6. Reading flow: Consistent formatting and method boundaries support navigation, while meaningless temporary variables, casts, type-ignore comments, and externally defined names interrupt comprehension.

Run 3

Code Structure: A cohesive Response class separates responsibilities into clearly named methods and properties, though the import list contains substantial unrelated clutter. Nesting: Mostly shallow, with moderate nesting in streaming, JSON decoding, and link parsing. Clarity of intent: Descriptive names, docstrings, and comments explain most behavior, but arbitrary single-letter variables and arithmetic obscure simple constants, indexes, and status ranges. Sentinel states and type-ignore annotations add cognitive overhead. Code length: Generally justified by functionality, but repeated documentation, overload signatures, and unnecessary temporary variables make it longer than needed. Action granularity: Statements usually perform one action per line; however, the lengthy iter_lines condition combines several checks with distracting arithmetic. Reading flow: Method boundaries and consistent formatting support navigation, but artificial calculations repeatedly interrupt otherwise natural logic. Overall, the code remains understandable, yet localized obfuscation significantly reduces readability.