17818617. RANDOM NUMBER GENERATION BASED ON THRESHOLD VOLTAGE RANDOMNESS simplified abstract (Micron Technology, Inc.)

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RANDOM NUMBER GENERATION BASED ON THRESHOLD VOLTAGE RANDOMNESS

Organization Name

Micron Technology, Inc.

Inventor(s)

Innocenzo Tortorelli of Cernusco Sui Naviglio (IT)

[[:Category:Matteo Impal� of Milano (IT)|Matteo Impal� of Milano (IT)]][[Category:Matteo Impal� of Milano (IT)]]

Cécile Colette Solange Nail of Meylan (FR)

RANDOM NUMBER GENERATION BASED ON THRESHOLD VOLTAGE RANDOMNESS - A simplified explanation of the abstract

This abstract first appeared for US patent application 17818617 titled 'RANDOM NUMBER GENERATION BASED ON THRESHOLD VOLTAGE RANDOMNESS

Simplified Explanation

- Memory device uses threshold voltage randomness for random number generation - Applies voltage to chalcogenide element until threshold voltage is reached - Detects state of oscillating signal when threshold voltage is reached - Outputs logic value corresponding to state of oscillating signal - Threshold voltage of chalcogenide element varies randomly across voltage applications - State of oscillating signal at threshold voltage varies randomly - Output logic value is random and suitable for random number generation

Potential Applications

This technology can be used in: - Encryption - Secure communication - Gaming - Statistical analysis

Problems Solved

- Generating truly random numbers - Improving security in various applications - Enhancing data encryption

Benefits

- Enhanced security - Improved data encryption - Reliable random number generation


Original Abstract Submitted

Methods, systems, and devices for random number generation based on threshold voltage randomness are described. For example, a memory device may apply a voltage to a chalcogenide element and increase the applied voltage at least until the applied voltage satisfies a threshold voltage associated with the chalcogenide element. The memory device may detect the state of an oscillating signal at a time at which the applied voltage satisfies the threshold voltage, and the memory device may output a logic value corresponding to the state of the oscillating signal. The threshold voltage of the chalcogenide element may vary in a statistically random manner across voltage applications, and hence the state of the oscillating signal at the time an applied voltage reaches the threshold voltage may likewise vary in a statistically random manner, and thus the corresponding logic value that is output may be a random value suitable for random number generation.