such that for T ≥ T 0 {\displaystyle T\geq T_{0}}

, such that for T ≥ T 0 {\displaystyle T\geq T_{0}}

such that for all t ≥ t 0 {\displaystyle t\geq t_{0}}

7/10/2010 CLB @ HOU T 0-0 Suspended 0 0 0 0 0 0 0 0 0

12/10/2016 SEA @ TOR T 0(5)-(4)0 Subbed on 43 0 0 0 0 0 0 0 0

12/10/2016 SEA @ TOR T 0(5)-(4)0 Subbed on 54 0 0 0 0 0 1 0 0

12/10/2016 SEA @ TOR T 0(5)-(4)0 Subbed on 12 0 0 0 0 0 0 0 0

256 bits of the same key are entered into the RAM on which T 0(1) , T 0(2) ..., T 0(M) was encrypted.

256 bits of the same key are entered into the RAM on which T 0(1) , T 0(2) ..., T 0(M) was encrypted.

256 bits of the same key are entered into the RAM on which T 0(1) , T 0(2) ..., T 0(M) was encrypted.

256 bits of the key are entered into the RAM, with the help of which the data was encrypted T 0(1) , T 0(2) ..., T 0(M) while T 0(M) can contain less than 64 bits.

256 bits of the key are entered into the RAM, with the help of which the data was encrypted T 0(1) , T 0(2) ..., T 0(M) while T 0(M) can contain less than 64 bits.

256 bits of the key are entered into the RAM, with the help of which the data was encrypted T 0(1) , T 0(2) ..., T 0(M) while T 0(M) can contain less than 64 bits.

Where R(T) is the resistance at the temperature T in Kelvin, R(T0) is a reference point at temperature T0.

At the same time, the same key is found in the KZU with which the open data blocks T 0(1) , T 0(2) , ..., T 0(M) are encrypted into the corresponding blocks of encrypted data T w(1) , T w(2) , ..., T W(M) .