TIBETAN MARK CARET -DZUD RTAGS BZHI MIG CAN·U+0F36

Character Information

Code Point
U+0F36
HEX
0F36
Unicode Plane
Basic Multilingual Plane
Category
Other Symbol

Character Representations

Click elements to copy
EncodingHexBinary
UTF8
E0 BC B6
11100000 10111100 10110110
UTF16 (big Endian)
0F 36
00001111 00110110
UTF16 (little Endian)
36 0F
00110110 00001111
UTF32 (big Endian)
00 00 0F 36
00000000 00000000 00001111 00110110
UTF32 (little Endian)
36 0F 00 00
00110110 00001111 00000000 00000000
HTML Entity
༶
URI Encoded
%E0%BC%B6

Description

U+0F36, the Tibetan Mark Caret - Dzud Rtags Bzhimig Can, is a specialized Unicode character primarily employed in digital text related to the Tibetan script. This unique symbol plays a crucial role in the representation of Tibetan phonetics and grammar, particularly in the Dzud (or Zhuan) Rtags Bzhimig Can system of the Dge-lugs tradition. The character is essential for accurately transcribing certain sounds and syllables that are not found in other Tibetan script systems. As a result, it contributes to preserving the linguistic heritage and cultural identity of the Tibetan language. In the context of digital text, this character allows for precise and accurate translation, transcription, and study of Tibetan literature, religious texts, and scholarly works.

How to type the symbol on Windows

Hold Alt and type 3894 on the numpad. Or use Character Map.

  1. Step 1: Determine the UTF-8 encoding bit layout

    The character has the Unicode code point U+0F36. In UTF-8, it is encoded using 3 bytes because its codepoint is in the range of 0x0800 to 0xffff.

    Therefore we know that the UTF-8 encoding will be done over 16 bits within the final 24 bits and that it will have the format: 1110xxxx 10xxxxxx 10xxxxxx
    Where the x are the payload bits.

    UTF-8 Encoding bit layout by codepoint range
    Codepoint RangeBytesBit patternPayload length
    U+0000 - U+007F10xxxxxxx7 bits
    U+0080 - U+07FF2110xxxxx 10xxxxxx11 bits
    U+0800 - U+FFFF31110xxxx 10xxxxxx 10xxxxxx16 bits
    U+10000 - U+10FFFF411110xxx 10xxxxxx 10xxxxxx 10xxxxxx21 bits
  2. Step 2: Obtain the payload bits:

    Convert the hexadecimal code point U+0F36 to binary: 00001111 00110110. Those are the payload bits.

  3. Step 3: Fill in the bits to match the bit pattern:

    Obtain the final bytes by arranging the paylod bits to match the bit layout:
    11100000 10111100 10110110