Utf in a sentence

For example, both the Japanese UTF-8 and the Hindi Unicode articles on Wikipedia take more space in UTF-16 than in UTF-8.

For UTF-8, the BOM is optional, while it is a must for the UTF-16 and the UTF-32 encodings.

In Japan especially, UTF-8 encoding without BOM is sometimes called "UTF-8N". citation citation Derivatives The following implementations show slight differences from the UTF-8 specification.

Code points in Planes 1 through 16 (supplementary planes) are accessed as surrogate pairs in UTF-16 and encoded in four bytes in UTF-8.

Early adopters tended to use UCS-2 (the fixed-width two-byte precursor to UTF-16) and later moved to UTF-16 (the variable-width current standard), as this was the least disruptive way to add support for non-BMP characters.

However RFC 3629, the UTF-8 standard, recommends that byte order marks be forbidden in protocols using UTF-8, but discusses the cases where this may not be possible.

However UCS-2, UTF-8, and UTF-32 can encode these code points in trivial and obvious ways, and large amounts of software does so even though the standard states that such arrangements should be treated as encoding errors.

In addition, the large restriction on possible patterns in UTF-8 (for instance there cannot be any lone bytes with the high bit set) means that it should be possible to distinguish UTF-8 from other character encodings without relying on the BOM.

Modern implementations often use the extensive repertoire defined by Unicode along with a variety of complex encodings such as UTF-8 and UTF-16.

Not decoding surrogate halves makes it impossible to store invalid UTF-16, such as Windows filenames, as UTF-8.

The official Unicode standard says that no UTF forms, including UTF-16, can encode these code points.

The Python language environment officially only uses UCS-2 internally since version 2.0, but the UTF-8 decoder to "Unicode" produces correct UTF-16.

The standard also allows the byte order to be stated explicitly by specifying UTF-16BE or UTF-16LE as the encoding type.

The standards organizations chose the largest block available of un-allocated 16-bit code points to use as these code units, and code points from this range are not individually encodable in UTF-16 (and not legally encodable in any UTF encoding).

This is the UTF-8 encoding of the Unicode byte order mark (BOM), and is commonly referred to as a UTF-8 BOM, even though it is not relevant to byte order.

This means UTF-16 code units are supported, but the file system does not check whether a sequence is valid UTF-16 (it allows any sequence of short values, not restricted to those in the Unicode standard).

UTF-8 and UTF-16 are probably the most commonly used encodings.

UTF-8 does not require slower mathematical operations such as multiplication or division (unlike the obsolete UTF-1 encoding).

UTF-8 encoding produces byte values strictly less than 0xFE, so either byte in the BOM sequence also identifies the encoding as UTF-16.

Beyond comparisons to utility ETFs or the S&P500, many previous articles and comments about UTG argue for or against the fund vs. other CEFs in the same sector, mostly BUI, UTF, and DNP.