Input: ᴄᴀʍоᴇ боᴧьɯоᴇ ʍоᴩᴇ
ᴄ: LATIN LETTER SMALL CAPITAL C (U+1D04)
ᴀ: LATIN LETTER SMALL CAPITAL A (U+1D00)
ʍ: LATIN SMALL LETTER TURNED W (U+028D)
о: CYRILLIC SMALL LETTER O (U+043E)
ᴇ: LATIN LETTER SMALL CAPITAL E (U+1D07)
: SPACE (U+0020)
б: CYRILLIC SMALL LETTER BE (U+0431)
о: CYRILLIC SMALL LETTER O (U+043E)
ᴧ: GREEK LETTER SMALL CAPITAL LAMDA (U+1D27)
ь: CYRILLIC SMALL LETTER SOFT SIGN (U+044C)
ɯ: LATIN SMALL LETTER TURNED M (U+026F)
о: CYRILLIC SMALL LETTER O (U+043E)
ᴇ: LATIN LETTER SMALL CAPITAL E (U+1D07)
: SPACE (U+0020)
ʍ: LATIN SMALL LETTER TURNED W (U+028D)
о: CYRILLIC SMALL LETTER O (U+043E)
ᴩ: GREEK LETTER SMALL CAPITAL RHO (U+1D29)
ᴇ: LATIN LETTER SMALL CAPITAL E (U+1D07)Experiments have shown that QUIC transfers on high-bandwidth connections can be limited by the size of the UDP receive and send buffer. The receive buffer holds packets that have been received by the kernel, but not yet read by the application (quic-go in this case). The send buffer holds packets that have been sent by quic-go, but not sent out by the kernel. In both cases, once these buffers fill up, the kernel will drop any new incoming packet.
Therefore, quic-go tries to increase the buffer size. The way to do this is an OS-specific, and we currently have an implementation for linux, windows and darwin. However, an application is only allowed to do increase the buffer size up to a maximum value set in the kernel. Unfortunately, on Linux this value is rather small, too small for high-bandwidth QUIC transfers.
ip route add 192.168.10.0/24 dev tun0 table open.outКак проверить BIOS на вирусы?Получением дампа флеша и сравнением с эталонным образом этой же версии прошивки этого же устройства, не считая изменяемых областей, вроде nvram.
Какие прямые или косвенные факты указывают на заражение BIOS ?Наличие дополнительных или измененных PEI/DXE-файлов.