Characteristics and responses of proteinoid encryption. This table summarises the outcomes of encrypting the message “Hello, Proteinoid!” with several proteinoid compositions as encryption keys. The table presents the capacitance of each proteinoid along with the first three bytes of the encrypted message. This shows the diversity of encryption. The response value shows the proteinoid’s reaction to the complete encrypted message. It comes from a function that combines resistance, impedance, and capacitance. The reactions vary widely, from 9.42 for L-Lys:L-Phe:L-His to 759.37 for L-Glu:L-Phe:L-His. This shows a big difference in encryption and proteinoid sensitivity among the compositions. The negative capacitance of L-Lys:L-Phe-L-His:PLLA (–656.60 nF) causes a unique encryption pattern and reaction.

Characteristics and responses of proteinoid encryption. This table summarises the outcomes of encrypting the message “Hello, Proteinoid!” with several proteinoid compositions as encryption keys. The table presents the capacitance of each proteinoid along with the first three bytes of the encrypted message. This shows the diversity of encryption. The response value shows the proteinoid’s reaction to the complete encrypted message. It comes from a function that combines resistance, impedance, and capacitance. The reactions vary widely, from 9.42 for L-Lys:L-Phe:L-His to 759.37 for L-Glu:L-Phe:L-His. This shows a big difference in encryption and proteinoid sensitivity among the compositions. The negative capacitance of L-Lys:L-Phe-L-His:PLLA (–656.60 nF) causes a unique encryption pattern and reaction.