Results for "Author: y2k software"

Generates a cryptographically secure random number. A cryptographically secure random number has to be generated from hardware and its sequence must not be predictable. At least under Windows, which uses preemptive multitasking, the only reliable and always present hardware device which changes its state in that manner, is the inbuilt timestamp counter of Pentium IV+ processors. Instead of the TSC, we also could try to access the Sound Blaster device and read the white noise generated by the microphone/line input, but this could be unreliable, since a plugged and stable sound source could give reproduceable patterns. Since the TSC value could range from 0 to 0FFFFFFFFh in eax, we need to scramble it a bit, to get an uniform distribution of the bits all over. This random number generator returns a scrambled TSC value and does not need to be seeded. Actually, the seed is taken each time from the processor, and the overall speed is noticeably higher than any other known random number generator.

Generates a cryptographically secure random number. A cryptographically secure random number has to be generated from hardware and its sequence must not be predictable. At least under Windows, which uses preemptive multitasking, the only reliable and always present hardware device which changes its state in that manner, is the inbuilt timestamp counter of Pentium IV+ processors. Instead of the TSC, we also could try to access the Sound Blaster device and read the white noise generated by the microphone/line input, but this could be unreliable, since a plugged and stable sound source could give reproduceable patterns. Since the TSC value could range from 0 to 0FFFFFFFFh in eax, we need to scramble it a bit, to get an uniform distribution of the bits all over. This random number generator returns a scrambled TSC value and does not need to be seeded. Actually, the seed is taken each time from the processor, and the overall speed is noticeably higher than any other known random number generator.

Generates a cryptographically secure random number. A cryptographically secure random number has to be generated from hardware and its sequence must not be predictable. At least under Windows, which uses preemptive multitasking, the only reliable and always present hardware device which changes its state in that manner, is the inbuilt timestamp counter of Pentium IV+ processors. Instead of the TSC, we also could try to access the Sound Blaster device and read the white noise generated by the microphone/line input, but this could be unreliable, since a plugged and stable sound source could give reproduceable patterns. Since the TSC value could range from 0 to 0FFFFFFFFh in eax, we need to scramble it a bit, to get an uniform distribution of the bits all over. This random number generator returns a scrambled TSC value and does not need to be seeded. Actually, the seed is taken each time from the processor, and the overall speed is noticeably higher than any other known random number generator.

Generates a cryptographically secure random number. A cryptographically secure random number has to be generated from hardware and its sequence must not be predictable. At least under Windows, which uses preemptive multitasking, the only reliable and always present hardware device which changes its state in that manner, is the inbuilt timestamp counter of Pentium IV+ processors. Instead of the TSC, we also could try to access the Sound Blaster device and read the white noise generated by the microphone/line input, but this could be unreliable, since a plugged and stable sound source could give reproduceable patterns. Since the TSC value could range from 0 to 0FFFFFFFFh in eax, we need to scramble it a bit, to get an uniform distribution of the bits all over. This random number generator returns a scrambled TSC value and does not need to be seeded. Actually, the seed is taken each time from the processor, and the overall speed is noticeably higher than any other known random number generator.

Generates a cryptographically secure random number. A cryptographically secure random number has to be generated from hardware and its sequence must not be predictable. At least under Windows, which uses preemptive multitasking, the only reliable and always present hardware device which changes its state in that manner, is the inbuilt timestamp counter of Pentium IV+ processors. Instead of the TSC, we also could try to access the Sound Blaster device and read the white noise generated by the microphone/line input, but this could be unreliable, since a plugged and stable sound source could give reproduceable patterns. Since the TSC value could range from 0 to 0FFFFFFFFh in eax, we need to scramble it a bit, to get an uniform distribution of the bits all over. This random number generator returns a scrambled TSC value and does not need to be seeded. Actually, the seed is taken each time from the processor, and the overall speed is noticeably higher than any other known random number generator.

Generates a cryptographically secure random number. A cryptographically secure random number has to be generated from hardware and its sequence must not be predictable. At least under Windows, which uses preemptive multitasking, the only reliable and always present hardware device which changes its state in that manner, is the inbuilt timestamp counter of Pentium IV+ processors. Instead of the TSC, we also could try to access the Sound Blaster device and read the white noise generated by the microphone/line input, but this could be unreliable, since a plugged and stable sound source could give reproduceable patterns. Since the TSC value could range from 0 to 0FFFFFFFFh in eax, we need to scramble it a bit, to get an uniform distribution of the bits all over. This random number generator returns a scrambled TSC value and does not need to be seeded. Actually, the seed is taken each time from the processor, and the overall speed is noticeably higher than any other known random number generator.

Generates a cryptographically secure random number. A cryptographically secure random number has to be generated from hardware and its sequence must not be predictable. At least under Windows, which uses preemptive multitasking, the only reliable and always present hardware device which changes its state in that manner, is the inbuilt timestamp counter of Pentium IV+ processors. Instead of the TSC, we also could try to access the Sound Blaster device and read the white noise generated by the microphone/line input, but this could be unreliable, since a plugged and stable sound source could give reproduceable patterns. Since the TSC value could range from 0 to 0FFFFFFFFh in eax, we need to scramble it a bit, to get an uniform distribution of the bits all over. This random number generator returns a scrambled TSC value and does not need to be seeded. Actually, the seed is taken each time from the processor, and the overall speed is noticeably higher than any other known random number generator.

Generates a cryptographically secure random number. A cryptographically secure random number has to be generated from hardware and its sequence must not be predictable. At least under Windows, which uses preemptive multitasking, the only reliable and always present hardware device which changes its state in that manner, is the inbuilt timestamp counter of Pentium IV+ processors. Instead of the TSC, we also could try to access the Sound Blaster device and read the white noise generated by the microphone/line input, but this could be unreliable, since a plugged and stable sound source could give reproduceable patterns. Since the TSC value could range from 0 to 0FFFFFFFFh in eax, we need to scramble it a bit, to get an uniform distribution of the bits all over. This random number generator returns a scrambled TSC value and does not need to be seeded. Actually, the seed is taken each time from the processor, and the overall speed is noticeably higher than any other known random number generator.

Generates a cryptographically secure random number. A cryptographically secure random number has to be generated from hardware and its sequence must not be predictable. At least under Windows, which uses preemptive multitasking, the only reliable and always present hardware device which changes its state in that manner, is the inbuilt timestamp counter of Pentium IV+ processors. Instead of the TSC, we also could try to access the Sound Blaster device and read the white noise generated by the microphone/line input, but this could be unreliable, since a plugged and stable sound source could give reproduceable patterns. Since the TSC value could range from 0 to 0FFFFFFFFh in eax, we need to scramble it a bit, to get an uniform distribution of the bits all over. This random number generator returns a scrambled TSC value and does not need to be seeded. Actually, the seed is taken each time from the processor, and the overall speed is noticeably higher than any other known random number generator.

Generates a cryptographically secure random number. A cryptographically secure random number has to be generated from hardware and its sequence must not be predictable. At least under Windows, which uses preemptive multitasking, the only reliable and always present hardware device which changes its state in that manner, is the inbuilt timestamp counter of Pentium IV+ processors. Instead of the TSC, we also could try to access the Sound Blaster device and read the white noise generated by the microphone/line input, but this could be unreliable, since a plugged and stable sound source could give reproduceable patterns. Since the TSC value could range from 0 to 0FFFFFFFFh in eax, we need to scramble it a bit, to get an uniform distribution of the bits all over. This random number generator returns a scrambled TSC value and does not need to be seeded. Actually, the seed is taken each time from the processor, and the overall speed is noticeably higher than any other known random number generator.