djangodocs

Django 1.9
Português (Brasil)
Documentation contents

Request and response objects

Quick overview

Django uses request and response objects to pass state through the system.

When a page is requested, Django creates an HttpRequest object that contains metadata about the request. Then Django loads the appropriate view, passing the HttpRequest as the first argument to the view function. Each view is responsible for returning an HttpResponse object.

This document explains the APIs for HttpRequest and HttpResponse objects, which are defined in the django.http module.

HttpRequest objects

class HttpRequest

Atributos

All attributes should be considered read-only, unless stated otherwise.

HttpRequest.scheme

A string representing the scheme of the request (http or https usually).

HttpRequest.body

The raw HTTP request body as a byte string. This is useful for processing data in different ways than conventional HTML forms: binary images, XML payload etc. For processing conventional form data, use HttpRequest.POST.

You can also read from an HttpRequest using a file-like interface. See HttpRequest.read().

HttpRequest.path

A string representing the full path to the requested page, not including the scheme or domain.

Example: "/music/bands/the_beatles/"

HttpRequest.path_info

Under some Web server configurations, the portion of the URL after the host name is split up into a script prefix portion and a path info portion. The path_info attribute always contains the path info portion of the path, no matter what Web server is being used. Using this instead of path can make your code easier to move between test and deployment servers.

For example, if the WSGIScriptAlias for your application is set to "/minfo", then path might be "/minfo/music/bands/the_beatles/" and path_info would be "/music/bands/the_beatles/".

HttpRequest.method

A string representing the HTTP method used in the request. This is guaranteed to be uppercase. Example:

Code
if request.method == 'GET':
    do_something()
elif request.method == 'POST':
    do_something_else()
HttpRequest.encoding

A string representing the current encoding used to decode form submission data (or None, which means the DEFAULT_CHARSET setting is used). You can write to this attribute to change the encoding used when accessing the form data. Any subsequent attribute accesses (such as reading from GET or POST) will use the new encoding value. Useful if you know the form data is not in the DEFAULT_CHARSET encoding.

HttpRequest.GET

A dictionary-like object containing all given HTTP GET parameters. See the QueryDict documentation below.

HttpRequest.POST

A dictionary-like object containing all given HTTP POST parameters, providing that the request contains form data. See the QueryDict documentation below. If you need to access raw or non-form data posted in the request, access this through the HttpRequest.body attribute instead.

It’s possible that a request can come in via POST with an empty POST dictionary – if, say, a form is requested via the POST HTTP method but does not include form data. Therefore, you shouldn’t use if request.POST to check for use of the POST method; instead, use if request.method == "POST" (see above).

Note: POST does not include file-upload information. See FILES.

HttpRequest.COOKIES

A standard Python dictionary containing all cookies. Keys and values are strings.

HttpRequest.FILES

A dictionary-like object containing all uploaded files. Each key in FILES is the name from the <input type="file" name="" />. Each value in FILES is an UploadedFile.

See Managing files for more information.

Note that FILES will only contain data if the request method was POST and the <form> that posted to the request had enctype="multipart/form-data". Otherwise, FILES will be a blank dictionary-like object.

HttpRequest.META

A standard Python dictionary containing all available HTTP headers. Available headers depend on the client and server, but here are some examples:

  • CONTENT_LENGTH – The length of the request body (as a string).

  • CONTENT_TYPE – The MIME type of the request body.

  • HTTP_ACCEPT – Acceptable content types for the response.

  • HTTP_ACCEPT_ENCODING – Acceptable encodings for the response.

  • HTTP_ACCEPT_LANGUAGE – Acceptable languages for the response.

  • HTTP_HOST – The HTTP Host header sent by the client.

  • HTTP_REFERER – The referring page, if any.

  • HTTP_USER_AGENT – The client’s user-agent string.

  • QUERY_STRING – The query string, as a single (unparsed) string.

  • REMOTE_ADDR – The IP address of the client.

  • REMOTE_HOST – The hostname of the client.

  • REMOTE_USER – The user authenticated by the Web server, if any.

  • REQUEST_METHOD – A string such as "GET" or "POST".

  • SERVER_NAME – The hostname of the server.

  • SERVER_PORT – The port of the server (as a string).

With the exception of CONTENT_LENGTH and CONTENT_TYPE, as given above, any HTTP headers in the request are converted to META keys by converting all characters to uppercase, replacing any hyphens with underscores and adding an HTTP_ prefix to the name. So, for example, a header called X-Bender would be mapped to the META key HTTP_X_BENDER.

Note that runserver strips all headers with underscores in the name, so you won’t see them in META. This prevents header-spoofing based on ambiguity between underscores and dashes both being normalizing to underscores in WSGI environment variables. It matches the behavior of Web servers like Nginx and Apache 2.4+.

HttpRequest.resolver_match

An instance of ResolverMatch representing the resolved url. This attribute is only set after url resolving took place, which means it’s available in all views but not in middleware methods which are executed before url resolving takes place (like process_request, you can use process_view instead).

Attributes set by application code

Django doesn’t set these attributes itself but makes use of them if set by your application.

HttpRequest.current_app

The url template tag will use its value as the current_app argument to reverse().

HttpRequest.urlconf

This will be used as the root URLconf for the current request, overriding the ROOT_URLCONF setting. See Como o Django processa uma requisição for details.

urlconf can be set to None to revert any changes made by previous middleware and return to using the ROOT_URLCONF.

Attributes set by middleware

Some of the middleware included in Django’s contrib apps set attributes on the request. If you don’t see the attribute on a request, be sure the appropriate middleware class is listed in MIDDLEWARE_CLASSES.

HttpRequest.session

From the SessionMiddleware: A readable and writable, dictionary-like object that represents the current session.

HttpRequest.site

From the CurrentSiteMiddleware: An instance of Site or RequestSite as returned by get_current_site() representing the current site.

HttpRequest.user

From the AuthenticationMiddleware: An instance of AUTH_USER_MODEL representing the currently logged-in user. If the user isn’t currently logged in, user will be set to an instance of AnonymousUser. You can tell them apart with is_authenticated(), like so:

Code
if request.user.is_authenticated():
    ... # Do something for logged-in users.
else:
    ... # Do something for anonymous users.

Métodos

HttpRequest.get_host()

Returns the originating host of the request using information from the HTTP_X_FORWARDED_HOST (if USE_X_FORWARDED_HOST is enabled) and HTTP_HOST headers, in that order. If they don’t provide a value, the method uses a combination of SERVER_NAME and SERVER_PORT as detailed in PEP 3333.

Example: "127.0.0.1:8000"

HttpRequest.get_port()

Returns the originating port of the request using information from the HTTP_X_FORWARDED_PORT (if USE_X_FORWARDED_PORT is enabled) and SERVER_PORT META variables, in that order.

HttpRequest.get_full_path()

Returns the path, plus an appended query string, if applicable.

Example: "/music/bands/the_beatles/?print=true"

HttpRequest.build_absolute_uri(location)

Returns the absolute URI form of location. If no location is provided, the location will be set to request.get_full_path().

If the location is already an absolute URI, it will not be altered. Otherwise the absolute URI is built using the server variables available in this request.

Example: "https://example.com/music/bands/the_beatles/?print=true"

Returns a cookie value for a signed cookie, or raises a django.core.signing.BadSignature exception if the signature is no longer valid. If you provide the default argument the exception will be suppressed and that default value will be returned instead.

The optional salt argument can be used to provide extra protection against brute force attacks on your secret key. If supplied, the max_age argument will be checked against the signed timestamp attached to the cookie value to ensure the cookie is not older than max_age seconds.

Por exemplo:

Code
>>> request.get_signed_cookie('name')
'Tony'
>>> request.get_signed_cookie('name', salt='name-salt')
'Tony' # assuming cookie was set using the same salt
>>> request.get_signed_cookie('non-existing-cookie')
...
KeyError: 'non-existing-cookie'
>>> request.get_signed_cookie('non-existing-cookie', False)
False
>>> request.get_signed_cookie('cookie-that-was-tampered-with')
...
BadSignature: ...
>>> request.get_signed_cookie('name', max_age=60)
...
SignatureExpired: Signature age 1677.3839159 > 60 seconds
>>> request.get_signed_cookie('name', False, max_age=60)
False

See cryptographic signing for more information.

HttpRequest.is_secure()

Returns True if the request is secure; that is, if it was made with HTTPS.

HttpRequest.is_ajax()

Returns True if the request was made via an XMLHttpRequest, by checking the HTTP_X_REQUESTED_WITH header for the string 'XMLHttpRequest'. Most modern JavaScript libraries send this header. If you write your own XMLHttpRequest call (on the browser side), you’ll have to set this header manually if you want is_ajax() to work.

If a response varies on whether or not it’s requested via AJAX and you are using some form of caching like Django’s cache middleware, you should decorate the view with vary_on_headers('X-Requested-With') so that the responses are properly cached.

HttpRequest.read(size=None)
HttpRequest.readline()
HttpRequest.readlines()
HttpRequest.xreadlines()
HttpRequest.__iter__()

Methods implementing a file-like interface for reading from an HttpRequest instance. This makes it possible to consume an incoming request in a streaming fashion. A common use-case would be to process a big XML payload with an iterative parser without constructing a whole XML tree in memory.

Given this standard interface, an HttpRequest instance can be passed directly to an XML parser such as ElementTree:

Code
import xml.etree.ElementTree as ET
for element in ET.iterparse(request):
    process(element)

QueryDict objects

class QueryDict

In an HttpRequest object, the GET and POST attributes are instances of django.http.QueryDict, a dictionary-like class customized to deal with multiple values for the same key. This is necessary because some HTML form elements, notably <select multiple>, pass multiple values for the same key.

The QueryDicts at request.POST and request.GET will be immutable when accessed in a normal request/response cycle. To get a mutable version you need to use .copy().

Métodos

QueryDict implements all the standard dictionary methods because it’s a subclass of dictionary. Exceptions are outlined here:

QueryDict.__init__(query_string=None, mutable=False, encoding=None)

Instantiates a QueryDict object based on query_string.

Code
>>> QueryDict('a=1&a=2&c=3')
<QueryDict: {'a': ['1', '2'], 'c': ['3']}>

If query_string is not passed in, the resulting QueryDict will be empty (it will have no keys or values).

Most QueryDicts you encounter, and in particular those at request.POST and request.GET, will be immutable. If you are instantiating one yourself, you can make it mutable by passing mutable=True to its __init__().

Strings for setting both keys and values will be converted from encoding to unicode. If encoding is not set, it defaults to DEFAULT_CHARSET.

QueryDict.__getitem__(key)

Returns the value for the given key. If the key has more than one value, __getitem__() returns the last value. Raises django.utils.datastructures.MultiValueDictKeyError if the key does not exist. (This is a subclass of Python’s standard KeyError, so you can stick to catching KeyError.)

QueryDict.__setitem__(key, value)

Sets the given key to [value] (a Python list whose single element is value). Note that this, as other dictionary functions that have side effects, can only be called on a mutable QueryDict (such as one that was created via copy()).

QueryDict.__contains__(key)

Returns True if the given key is set. This lets you do, e.g., if "foo" in request.GET.

QueryDict.get(key, default=None)

Uses the same logic as __getitem__() above, with a hook for returning a default value if the key doesn’t exist.

QueryDict.setdefault(key, default=None)

Just like the standard dictionary setdefault() method, except it uses __setitem__() internally.

QueryDict.update(other_dict)

Takes either a QueryDict or standard dictionary. Just like the standard dictionary update() method, except it appends to the current dictionary items rather than replacing them. For example:

Code
>>> q = QueryDict('a=1', mutable=True)
>>> q.update({'a': '2'})
>>> q.getlist('a')
['1', '2']
>>> q['a'] # returns the last
'2'
QueryDict.items()

Just like the standard dictionary items() method, except this uses the same last-value logic as __getitem__(). For example:

Code
>>> q = QueryDict('a=1&a=2&a=3')
>>> q.items()
[('a', '3')]
QueryDict.iteritems()

Just like the standard dictionary iteritems() method. Like QueryDict.items() this uses the same last-value logic as QueryDict.__getitem__().

QueryDict.iterlists()

Like QueryDict.iteritems() except it includes all values, as a list, for each member of the dictionary.

QueryDict.values()

Just like the standard dictionary values() method, except this uses the same last-value logic as __getitem__(). For example:

Code
>>> q = QueryDict('a=1&a=2&a=3')
>>> q.values()
['3']
QueryDict.itervalues()

Just like QueryDict.values(), except an iterator.

In addition, QueryDict has the following methods:

QueryDict.copy()

Returns a copy of the object, using copy.deepcopy() from the Python standard library. This copy will be mutable even if the original was not.

QueryDict.getlist(key, default=None)

Returns the data with the requested key, as a Python list. Returns an empty list if the key doesn’t exist and no default value was provided. It’s guaranteed to return a list of some sort unless the default value provided is not a list.

QueryDict.setlist(key, list_)

Sets the given key to list_ (unlike __setitem__()).

QueryDict.appendlist(key, item)

Appends an item to the internal list associated with key.

QueryDict.setlistdefault(key, default_list=None)

Just like setdefault, except it takes a list of values instead of a single value.

QueryDict.lists()

Like items(), except it includes all values, as a list, for each member of the dictionary. For example:

Code
>>> q = QueryDict('a=1&a=2&a=3')
>>> q.lists()
[('a', ['1', '2', '3'])]
QueryDict.pop(key)

Returns a list of values for the given key and removes them from the dictionary. Raises KeyError if the key does not exist. For example:

Code
>>> q = QueryDict('a=1&a=2&a=3', mutable=True)
>>> q.pop('a')
['1', '2', '3']
QueryDict.popitem()

Removes an arbitrary member of the dictionary (since there’s no concept of ordering), and returns a two value tuple containing the key and a list of all values for the key. Raises KeyError when called on an empty dictionary. For example:

Code
>>> q = QueryDict('a=1&a=2&a=3', mutable=True)
>>> q.popitem()
('a', ['1', '2', '3'])
QueryDict.dict()

Returns dict representation of QueryDict. For every (key, list) pair in QueryDict, dict will have (key, item), where item is one element of the list, using same logic as QueryDict.__getitem__():

Code
>>> q = QueryDict('a=1&a=3&a=5')
>>> q.dict()
{'a': '5'}
QueryDict.urlencode(safe=None)

Returns a string of the data in query-string format. Example:

Code
>>> q = QueryDict('a=2&b=3&b=5')
>>> q.urlencode()
'a=2&b=3&b=5'

Optionally, urlencode can be passed characters which do not require encoding. For example:

Code
>>> q = QueryDict(mutable=True)
>>> q['next'] = '/a&b/'
>>> q.urlencode(safe='/')
'next=/a%26b/'

HttpResponse objects

class HttpResponse

In contrast to HttpRequest objects, which are created automatically by Django, HttpResponse objects are your responsibility. Each view you write is responsible for instantiating, populating and returning an HttpResponse.

The HttpResponse class lives in the django.http module.

Uso

Passing strings

Typical usage is to pass the contents of the page, as a string, to the HttpResponse constructor:

Code
>>> from django.http import HttpResponse
>>> response = HttpResponse("Here's the text of the Web page.")
>>> response = HttpResponse("Text only, please.", content_type="text/plain")

But if you want to add content incrementally, you can use response as a file-like object:

Code
>>> response = HttpResponse()
>>> response.write("<p>Here's the text of the Web page.</p>")
>>> response.write("<p>Here's another paragraph.</p>")

Passing iterators

Finally, you can pass HttpResponse an iterator rather than strings. HttpResponse will consume the iterator immediately, store its content as a string, and discard it.

If you need the response to be streamed from the iterator to the client, you must use the StreamingHttpResponse class instead.

Setting header fields

To set or remove a header field in your response, treat it like a dictionary:

Code
>>> response = HttpResponse()
>>> response['Age'] = 120
>>> del response['Age']

Note that unlike a dictionary, del doesn’t raise KeyError if the header field doesn’t exist.

For setting the Cache-Control and Vary header fields, it is recommended to use the patch_cache_control() and patch_vary_headers() methods from django.utils.cache, since these fields can have multiple, comma-separated values. The “patch” methods ensure that other values, e.g. added by a middleware, are not removed.

HTTP header fields cannot contain newlines. An attempt to set a header field containing a newline character (CR or LF) will raise BadHeaderError

Telling the browser to treat the response as a file attachment

To tell the browser to treat the response as a file attachment, use the content_type argument and set the Content-Disposition header. For example, this is how you might return a Microsoft Excel spreadsheet:

Code
>>> response = HttpResponse(my_data, content_type='application/vnd.ms-excel')
>>> response['Content-Disposition'] = 'attachment; filename="foo.xls"'

There’s nothing Django-specific about the Content-Disposition header, but it’s easy to forget the syntax, so we’ve included it here.

Atributos

HttpResponse.content

A bytestring representing the content, encoded from a Unicode object if necessary.

HttpResponse.charset

A string denoting the charset in which the response will be encoded. If not given at HttpResponse instantiation time, it will be extracted from content_type and if that is unsuccessful, the DEFAULT_CHARSET setting will be used.

HttpResponse.status_code

The HTTP status code for the response.

HttpResponse.reason_phrase

The HTTP reason phrase for the response.

HttpResponse.streaming

This is always False.

This attribute exists so middleware can treat streaming responses differently from regular responses.

HttpResponse.closed

True if the response has been closed.

Métodos

HttpResponse.__init__(content='', content_type=None, status=200, reason=None, charset=None)

Instantiates an HttpResponse object with the given page content and content type.

content should be an iterator or a string. If it’s an iterator, it should return strings, and those strings will be joined together to form the content of the response. If it is not an iterator or a string, it will be converted to a string when accessed.

content_type is the MIME type optionally completed by a character set encoding and is used to fill the HTTP Content-Type header. If not specified, it is formed by the DEFAULT_CONTENT_TYPE and DEFAULT_CHARSET settings, by default: “text/html; charset=utf-8”.

status is the HTTP status code for the response.

reason is the HTTP response phrase. If not provided, a default phrase will be used.

charset is the charset in which the response will be encoded. If not given it will be extracted from content_type, and if that is unsuccessful, the DEFAULT_CHARSET setting will be used.

HttpResponse.__setitem__(header, value)

Sets the given header name to the given value. Both header and value should be strings.

HttpResponse.__delitem__(header)

Deletes the header with the given name. Fails silently if the header doesn’t exist. Case-insensitive.

HttpResponse.__getitem__(header)

Returns the value for the given header name. Case-insensitive.

HttpResponse.has_header(header)

Returns True or False based on a case-insensitive check for a header with the given name.

HttpResponse.setdefault(header, value)

Sets a header unless it has already been set.

Sets a cookie. The parameters are the same as in the Morsel cookie object in the Python standard library.

  • max_age should be a number of seconds, or None (default) if the cookie should last only as long as the client’s browser session. If expires is not specified, it will be calculated.

  • expires should either be a string in the format "Wdy, DD-Mon-YY HH:MM:SS GMT" or a datetime.datetime object in UTC. If expires is a datetime object, the max_age will be calculated.

  • Use domain if you want to set a cross-domain cookie. For example, domain=".lawrence.com" will set a cookie that is readable by the domains www.lawrence.com, blogs.lawrence.com and calendars.lawrence.com. Otherwise, a cookie will only be readable by the domain that set it.

  • Use httponly=True if you want to prevent client-side JavaScript from having access to the cookie.

    HTTPOnly is a flag included in a Set-Cookie HTTP response header. It is not part of the RFC 2109 standard for cookies, and it isn’t honored consistently by all browsers. However, when it is honored, it can be a useful way to mitigate the risk of a client-side script from accessing the protected cookie data.

Like set_cookie(), but cryptographic signing the cookie before setting it. Use in conjunction with HttpRequest.get_signed_cookie(). You can use the optional salt argument for added key strength, but you will need to remember to pass it to the corresponding HttpRequest.get_signed_cookie() call.

Deletes the cookie with the given key. Fails silently if the key doesn’t exist.

Due to the way cookies work, path and domain should be the same values you used in set_cookie() – otherwise the cookie may not be deleted.

HttpResponse.write(content)

This method makes an HttpResponse instance a file-like object.

HttpResponse.flush()

This method makes an HttpResponse instance a file-like object.

HttpResponse.tell()

This method makes an HttpResponse instance a file-like object.

HttpResponse.getvalue()

Returns the value of HttpResponse.content. This method makes an HttpResponse instance a stream-like object.

HttpResponse.writable()

Always True. This method makes an HttpResponse instance a stream-like object.

HttpResponse.writelines(lines)

Writes a list of lines to the response. Line separators are not added. This method makes an HttpResponse instance a stream-like object.

HttpResponse subclasses

Django includes a number of HttpResponse subclasses that handle different types of HTTP responses. Like HttpResponse, these subclasses live in django.http.

class HttpResponseRedirect

The first argument to the constructor is required – the path to redirect to. This can be a fully qualified URL (e.g. 'https://www.yahoo.com/search/'), an absolute path with no domain (e.g. '/search/'), or even a relative path (e.g. 'search/'). In that last case, the client browser will reconstruct the full URL itself according to the current path. See HttpResponse for other optional constructor arguments. Note that this returns an HTTP status code 302.

url

This read-only attribute represents the URL the response will redirect to (equivalent to the Location response header).

class HttpResponsePermanentRedirect

Like HttpResponseRedirect, but it returns a permanent redirect (HTTP status code 301) instead of a “found” redirect (status code 302).

class HttpResponseNotModified

The constructor doesn’t take any arguments and no content should be added to this response. Use this to designate that a page hasn’t been modified since the user’s last request (status code 304).

class HttpResponseBadRequest

Acts just like HttpResponse but uses a 400 status code.

class HttpResponseNotFound

Acts just like HttpResponse but uses a 404 status code.

class HttpResponseForbidden

Acts just like HttpResponse but uses a 403 status code.

class HttpResponseNotAllowed

Like HttpResponse, but uses a 405 status code. The first argument to the constructor is required: a list of permitted methods (e.g. ['GET', 'POST']).

class HttpResponseGone

Acts just like HttpResponse but uses a 410 status code.

class HttpResponseServerError

Acts just like HttpResponse but uses a 500 status code.

JsonResponse objects

class JsonResponse(data, encoder=DjangoJSONEncoder, safe=True, json_dumps_params=None, **kwargs)

An HttpResponse subclass that helps to create a JSON-encoded response. It inherits most behavior from its superclass with a couple differences:

Its default Content-Type header is set to application/json.

The first parameter, data, should be a dict instance. If the safe parameter is set to False (see below) it can be any JSON-serializable object.

The encoder, which defaults to django.core.serializers.json.DjangoJSONEncoder, will be used to serialize the data. See JSON serialization for more details about this serializer.

The safe boolean parameter defaults to True. If it’s set to False, any object can be passed for serialization (otherwise only dict instances are allowed). If safe is True and a non-dict object is passed as the first argument, a TypeError will be raised.

The json_dumps_params parameter is a dictionary of keyword arguments to pass to the json.dumps() call used to generate the response.

Uso

Typical usage could look like:

Code
>>> from django.http import JsonResponse
>>> response = JsonResponse({'foo': 'bar'})
>>> response.content
b'{"foo": "bar"}'

Serializing non-dictionary objects

In order to serialize objects other than dict you must set the safe parameter to False:

Code
>>> response = JsonResponse([1, 2, 3], safe=False)

Without passing safe=False, a TypeError will be raised.

Changing the default JSON encoder

If you need to use a different JSON encoder class you can pass the encoder parameter to the constructor method:

Code
>>> response = JsonResponse(data, encoder=MyJSONEncoder)

StreamingHttpResponse objects

class StreamingHttpResponse

The StreamingHttpResponse class is used to stream a response from Django to the browser. You might want to do this if generating the response takes too long or uses too much memory. For instance, it’s useful for generating large CSV files.

The StreamingHttpResponse is not a subclass of HttpResponse, because it features a slightly different API. However, it is almost identical, with the following notable differences:

  • It should be given an iterator that yields strings as content.

  • You cannot access its content, except by iterating the response object itself. This should only occur when the response is returned to the client.

  • It has no content attribute. Instead, it has a streaming_content attribute.

  • You cannot use the file-like object tell() or write() methods. Doing so will raise an exception.

StreamingHttpResponse should only be used in situations where it is absolutely required that the whole content isn’t iterated before transferring the data to the client. Because the content can’t be accessed, many middlewares can’t function normally. For example the ETag and Content- Length headers can’t be generated for streaming responses.

Atributos

StreamingHttpResponse.streaming_content

An iterator of strings representing the content.

StreamingHttpResponse.status_code

The HTTP status code for the response.

StreamingHttpResponse.reason_phrase

The HTTP reason phrase for the response.

StreamingHttpResponse.streaming

This is always True.

FileResponse objects

class FileResponse

FileResponse is a subclass of StreamingHttpResponse optimized for binary files. It uses wsgi.file_wrapper if provided by the wsgi server, otherwise it streams the file out in small chunks.

FileResponse expects a file open in binary mode like so:

Code
>>> from django.http import FileResponse
>>> response = FileResponse(open('myfile.png', 'rb'))

This page as Markdown JSON

Edit this page on GitHub Official version