Beispiel #1
0
 def _write_headers(self, msg):
     # This is almost the same as the string version, except for handling
     # strings with 8bit bytes.
     for h in msg._headers:
         self.write('%s: ' % h.name)
         if isinstance(h, str):
             v = h.source if h.source is not None else h
             if _has_surrogates(v):
                 if not self.policy.must_be_7bit:
                     # If we have raw 8bit data in a byte string, we have no idea
                     # what the encoding is.  There is no safe way to split this
                     # string.  If it's ascii-subset, then we could do a normal
                     # ascii split, but if it's multibyte then we could break the
                     # string.  There's no way to know so the least harm seems to
                     # be to not split the string and risk it being too long.
                     self.write(v + NL)
                     continue
                 h = Header(v,
                            charset=_charset.UNKNOWN8BIT,
                            header_name=h.name)
             else:
                 h = Header(v, header_name=h.name)
         self.write(
             h.encode(linesep=self._NL, maxlinelen=self._maxheaderlen) +
             self._NL)
     # A blank line always separates headers from body
     self.write(self._NL)
Beispiel #2
0
 def _write_headers(self, msg):
     for h, v in msg.items():
         self.write('%s: ' % h)
         if isinstance(v, Header):
             self.write(
                 v.encode(maxlinelen=self._maxheaderlen, linesep=self._NL) +
                 self._NL)
         else:
             v = v.source if v.source is not None else v
             # Header's got lots of smarts, so use it.
             header = Header(v,
                             maxlinelen=self._maxheaderlen,
                             header_name=h)
             self.write(header.encode(linesep=self._NL) + self._NL)
     # A blank line always separates headers from body
     self.write(self._NL)
    def test_japanese_codecs(self):
        eq = self.ndiffAssertEqual
        jcode = "euc-jp"
        gcode = "iso-8859-1"
        j = Charset(jcode)
        g = Charset(gcode)
        h = Header("Hello World!")
        jhello = str(b'\xa5\xcf\xa5\xed\xa1\xbc\xa5\xef\xa1\xbc'
                     b'\xa5\xeb\xa5\xc9\xa1\xaa', jcode)
        ghello = str(b'Gr\xfc\xdf Gott!', gcode)
        h.append(jhello, j)
        h.append(ghello, g)
        # BAW: This used to -- and maybe should -- fold the two iso-8859-1
        # chunks into a single encoded word.  However it doesn't violate the
        # standard to have them as two encoded chunks and maybe it's
        # reasonable <wink> for each .append() call to result in a separate
        # encoded word.
        eq(h.encode(), """\
Hello World! =?iso-2022-jp?b?GyRCJU8lbSE8JW8hPCVrJUkhKhsoQg==?=
 =?iso-8859-1?q?Gr=FC=DF_Gott!?=""")
        eq(decode_header(h.encode()),
           [(b'Hello World!', None),
            (b'\x1b$B%O%m!<%o!<%k%I!*\x1b(B', 'iso-2022-jp'),
            (b'Gr\xfc\xdf Gott!', gcode)])
        subject_bytes = (b'test-ja \xa4\xd8\xc5\xea\xb9\xc6\xa4\xb5'
            b'\xa4\xec\xa4\xbf\xa5\xe1\xa1\xbc\xa5\xeb\xa4\xcf\xbb\xca\xb2'
            b'\xf1\xbc\xd4\xa4\xce\xbe\xb5\xc7\xa7\xa4\xf2\xc2\xd4\xa4\xc3'
            b'\xa4\xc6\xa4\xa4\xa4\xde\xa4\xb9')
        subject = str(subject_bytes, jcode)
        h = Header(subject, j, header_name="Subject")
        # test a very long header
        enc = h.encode()
        # TK: splitting point may differ by codec design and/or Header encoding
        eq(enc , """\
=?iso-2022-jp?b?dGVzdC1qYSAbJEIkWEVqOUYkNSRsJD8lYSE8JWskTztKGyhC?=
 =?iso-2022-jp?b?GyRCMnE8VCROPjVHJyRyQlQkQyRGJCQkXiQ5GyhC?=""")
        # TK: full decode comparison
        eq(str(h).encode(jcode), subject_bytes)