Your best
kept secret

Perfect Secrecy defies computational constraints and stands invulnerable, even when confronted with the formidable power of quantum computers. It’s a remarkable achievement in the world of cryptography! 🚀🔒

Yes. Perfect Secrecy was first defined in 1946 by Claude Shannon and declassified in 1949. Rather than based on a hard math problem, it is based on statistics and probability. There is no math problem that can be solved to decrypt or break the encryption.

It is very cost-effective compared to other encryption methods, including other One Time Pad Solutions.

Proven by mathematical proof, perfect secrecy encryption is the only encryption method that is un-hackable, given unlimited time and resources. Old methods of accomplishing this were complex, required securely storing a large mask/pad to recover the white text, and used more than twice the bandwidth to send to the receiver.

A modern, novel approach to perfect secrecy has been developed, avoiding these costly requirements. AI-based technology has been developed, making perfect secrecy not only more effective but more cost-effective than current cryptography methods. 

Our novel Patent Pending AI technology:

• 143% faster than AES256
• Doesn’t require storage or transmission of the mask/pad/key
• Requires no keys to be tracked or storage making this new approach more cost-effective than current and PQC cryptography methods

Perfect secrecy, or one-time pad encryption, differs from other encryption methods in several key ways: 

1. Key Length: In perfect secrecy, the key length is equal to the length of the message. This is in contrast to other encryption methods where the key is typically much shorter than the message. 
2. Key Usage: The key in perfect secrecy is used only once and then discarded. In other encryption methods, keys can be reused across multiple encryption/decryption cycles. 
3. Security: Perfect secrecy provides absolute security against ciphertext-only attacks. Other encryption methods can provide computational security, but they can potentially be broken with enough computational resources. 
4. Information Leakage: With perfect secrecy, the ciphertext reveals no information about the plaintext, other than possibly its length. In contrast, some other encryption methods can leak statistical information about the plaintext.

Perfect secrecy, also known as one-time pad encryption, is a method of encryption where each bit or character of plaintext is encrypted with a random key or pad that is used only once. This makes the ciphertext indistinguishable from random noise, providing perfect secrecy. 

Traditional malware attacks often rely on exploiting vulnerabilities in software or intercepting and deciphering messages. However, if a message is encrypted with perfect secrecy: 

1. Intercepted messages are unreadable: Even if a malware intercepts the encrypted messages, it cannot decipher them without the one-time pad, which is supposed to be truly random and kept secret. The intercepted ciphertext would appear as random noise, making it impossible for the malware to extract any meaningful information. 
2. No patterns to exploit: Since each encryption key is unique and not reused, pattern-based attacks such as frequency analysis are ineffective. In other encryption methods, patterns in the plaintext could potentially be detected in the ciphertext, but this is not the case with perfect secrecy. 
3. No software vulnerabilities to exploit: Perfect secrecy relies on the randomness of the key and the security of the key exchange, not on the complexity of the encryption algorithm. Therefore, traditional malware attacks that exploit software vulnerabilities are ineffective against it. 

SQL injections are ineffective with perfect secrecy because perfect secrecy, also known as information-theoretic security, implies that the ciphertext provides no information about the plaintext. This means that even if an attacker can inject SQL commands, they would not be able to infer any meaningful information from the results because the results are perfectly encrypted. 

SQL injections work by manipulating SQL queries to gain unauthorized access to data. An attacker uses input fields to insert (or “inject”) malicious SQL code. This code can trick the database into executing unintended commands, such as revealing, modifying, or deleting data.

However, with perfect secrecy, the data that an attacker could potentially access through SQL injection is encrypted in such a way that every possible plaintext is equally likely given the ciphertext. This means that the attacker gains no information about the actual data, even if they can manipulate the SQL queries.

In other words, even if an attacker successfully performs an SQL injection attack, the data they retrieve will be useless to them because it’s perfectly encrypted.