AES-256

is an encryption protocol that protects nuclear codes, government top-secret information, the most critical data vaults in the world, and... your Private Resonator Storage.

But why is it so effective and secure?
Let’s find out →

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What is AES-256 Encryption?

Advanced Encryption Standard (AES) 256 is a virtually impenetrable symmetric encryption algorithm that uses a 256-bit key to convert text or data into a cipher. It’s the strongest member of the AES encryption family.


Imagine encryption as a digital lock. To “lock” the data, you use an encryption key, and only with the matching key can it be “unlocked” or decrypted. AES-256 uses a key with 256 bits (an enormous number of possible combinations). By “enormous,” we mean:


For a hacker to gain access to data protected with AES-256 encryption, they would need to try 2^256 combinations with the most powerful computers available. That’s around

combinations. To put it into perspective, this is more than the number of atoms in the observable universe. Even the world’s most powerful computational clusters working solely against you would need thousands of years to find the correct key.

How Does AES-256 Work?

AES-256 uses a symmetric key approach, meaning the same key encrypts and decrypts the data. Here’s a simplified rundown of how it works:

• Key Expansion: The256-bit key is expanded into multiple “roundkeys.” Imagine breaking down your unique key into smaller pieces, each used at a different point in the process. breaking down your unique key into smaller pieces, each used at a different point in the processC
• Initial Round: The first round key is added to the data to begin encryption.
• Rounds of Encryption: AES-256 uses 14 rounds of encryption, each with multiple steps:
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  • SubBytes: Each byte is substituted with another byte to obscure the data.
  • ShiftRows: The rows of data are shifted, scattering the information further.
  • MixColumns: Columns are mixed in a calculated way, adding complexity to the data.
  • AddRoundKey: The next round key is applied.
• FinalRound: After 14 rounds, MixColumns is skipped in the final step, and the data is fully encrypted.

To decrypt, these steps are reversed using the key to restore the data to its original form. This process is relatively easy for an encryptor to execute, but nearly impossible for a penetrator to crack.

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Why Did We Choose AES-256 for Resonator Products?

After extensive discussion, research, and analysis (with prominent community members involved), we explored many mechanisms for leveraging the revenue generated. Two key metrics guided us: long-term sustainability and efficiency.


• Unmatched Security: The 256-bit key offers protection so strong that a brute-force attack would take billions of years, even with today's fastest computers. That's about as close to "unbreakable" as we can get.
• Widely Trusted: AES-256 is used by governments, banks, and healthcare industries. Its global adoption makes it the foundation of security protocols like SSL/LS (for secure web traffic), VPNs, and more. Standards like FIPS 140-2 and PCI DSS also recognize it as a top choice for data security.
• Efficient Performance: Despite its strength, AES encryption is fast and efficient on modern hardware, handling large data volumes in real time. This makes it suitable for video calls, streaming, and other high-speed applications.
• Universally Recognized: Because AES-256 is so well-known and trusted, it reassures users and clients that their data is fully secure.

Worth noting: all files in the Resonator Ecosystem are encrypted locally. This means no one but the user has access to the files.
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Conclusion:

AES-256 encryption is a powerful and efficient tool for everyone who is serious about data security. Its combination of strength, efficiency, and global trust makes it ideal for protecting private information and files.

AES-256 represents not just an encryption method but a commitment to securing data. It’s precisely what we need for Resonator.

The future is bright.