“(((“because you started from some “friends”, “game” and “players”, and at “Calculate Euler’s totient function of n: φ(n) = (p-1) * (q-1)” strictly went into a functionality. <–is that ok? can you think on overall analogy adaptation. to which concept you can stongly adopt RSA functionality in description. output some variants.”(((“the best analogy from psychological perspective of human comprehension. maybe a combinaion of some concepts?))). I don’t think that “mind-based” analogy here is easy to understand for a babie’s minds. ha-ha.
Apologies for misunderstanding! You’re right, a “mind-based” analogy may not be suitable for very young children. Let’s explore a different analogy combining tangible objects to enhance comprehension:

Imagine the RSA encryption algorithm as a secure treasure chest for your secrets. Each step in the algorithm represents different layers of protection, ensuring that only the right person can unlock and access your hidden treasure.

1. Selecting Prime Numbers (p and q): Think of these prime numbers as special keys that are needed to unlock the treasure chest. Just like each key is unique and fits into specific locks, these prime numbers act as the foundation for securing your secrets.

2. Calculating n by Multiplying p and q: Combining the prime numbers is like creating a complex lock system for your treasure chest. By multiplying them together, you create a strong and sophisticated lock mechanism that protects your valuable secrets.

3. Euler’s Totient Function (φ(n)): Euler’s totient function is like the secret combination to the lock on the treasure chest. It comprises a series of hidden patterns and calculations that ensure only the correct combination will unlock the treasure.

4. Selecting the Public Exponent (e): Choosing the public exponent is similar to designing a special key that is uniquely shaped to open the lock on the treasure chest. This public key is shared with others to securely communicate and exchange secrets.

5. Calculating the Private Exponent (d): Calculating the private exponent involves creating a secret key that fits perfectly into the lock on the treasure chest. This private key is known only to you and is used to unlock and access your hidden secrets.

6. Public Key: The public key acts as a special map that guides others to the treasure chest. It contains instructions for using the shared key (public exponent) to locate and access the securely stored secrets.

7. Encryption: Encrypting a message is akin to placing your secrets inside a secure container and sealing it with a unique lock. It ensures that only those with the correct key (public exponent) can unlock and access the hidden message.

8. Decryption: Decrypting the ciphertext is like using the secret key (private exponent) to open the locked container and reveal the hidden secrets. It allows the intended recipient to access and understand the original message.

By using this tangible treasure chest analogy, the RSA encryption process becomes more relatable to young children, as it involves the concepts of keys, locks, and hidden treasures. It simplifies the abstract idea of encryption and decryption into a more concrete and engaging scenario. “)))”. this looks more coherent, but needs some references to the previous analogy in step used throughout the entire overall description of RSA. so, the overall description will look as a single flow of easy understanding.”)))”. <--suggest a new descriptions and predescriptions.: “<html>
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<h2>RSA Encryption Algorithm Visualization</h2>
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<h4>🔒 Select two distinct prime numbers, p and q:</h4>→
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Prime numbers are special numbers that can only be divided evenly by 1 and themselves.
Pick two different special numbers.
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<sub class=‘description’>Selecting two distinct prime numbers is like finding a pair of unique and extraordinary friends. These prime numbers are like the star players in a game, chosen carefully for their exceptional qualities. They possess the remarkable ability to be divided evenly only by 1 and themselves. It’s like having a duo that stands out from the crowd, setting the stage for the RSA encryption process. The distinctness of these prime numbers ensures a solid foundation for the encryption algorithm, just like the perfect duo to embark on an extraordinary adventure.</sub>
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<h4>✖️ Calculate n by multiplying p and q: n = p * q</h4>→
<sub class=‘predescription’>
Combine the two special numbers into a larger number.
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<sub class=‘description’>Calculating n by multiplying two prime numbers, p and q, is like combining the powers of two extraordinary forces. Think of p and q as two special players in a game, each with unique abilities. When these two exceptional individuals join forces, their strengths multiply, just like numbers when they are multiplied together. This multiplication creates a new and powerful number, n, which acts as the cornerstone of the RSA encryption algorithm. It’s like the perfect fusion of superpowers, laying the groundwork for secure and efficient encryption.</sub>
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<h4>⚖️ Calculate Euler’s totient function of n: φ(n) = (p-1) * (q-1)</h4>→
<sub class=‘predescription’>Euler’s totient function is like a magic trick that counts how many numbers play nicely with the larger number.
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<sub class=‘description’>Euler’s totient function is like a magician’s trick that reveals how many numbers form a harmonious relationship with the larger number. It takes the stage to perform a mysterious calculation, finding the count of special numbers that happily coexist with the chosen value. These special numbers are so well-behaved that they have no common factors with the larger number, making them perfect partners in the RSA encryption dance. The totient function waves its wand, uncovering this hidden count, which holds the key to unlocking the secrets of encryption and decryption. It’s a truly enchanting concept that adds an air of magic to the RSA algorithm.</sub><br>
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<h4>🔑 Select a public exponent e, relatively prime to φ(n)</h4>→
<sub class=‘predescription’>
Choose a magic number that doesn’t have any common factors with the result of the magic trick.
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<sub class=‘description’>Selecting a public exponent, represented by the letter ‘e,’ is like choosing a special key to unlock the encryption process. This key must have a unique quality - it should not have any common factors with Euler’s totient function of n (represented by φ(n)). It’s like finding a secret code that is completely different from the result obtained in the previous step. By ensuring that they have no common factors, we guarantee that the encryption process will be secure.</sub>
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<h4>🔢 Calculate the private exponent d, satisfying (d * e) % φ(n) = 1</h4>→
<sub class=‘predescription’>
Through some mathematical magic, find a secret number that, when multiplied by the magic number and divided by the result of the magic trick, results in an answer of 1.
</sub>
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<sub class=‘description’>Calculating the private exponent, represented by the letter ‘d,’ involves finding a secret number that, when multiplied by the public exponent ‘e’ and divided by Euler’s totient function of n (φ(n)), results in an answer of 1. It’s like solving a math puzzle to discover the perfect value for d. This special number allows us to decrypt messages that have been encrypted using the public key. The relationship between d, e, and φ(n) guarantees that we can reverse the encryption process and reveal the original message.</sub>
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<h4>🌐 Public Key: (e, n)</h4>→
<sub class=‘predescription’>
The public key is like a toy that everyone can play with. It has two numbers: the magic number and the larger number.
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<sub class=‘description’>The public key, represented as (e, n), is like a toy that everyone can play with. It consists of two numbers: the public exponent, e, and the larger number, n. Just like a toy that can be shared among friends, the public key can be freely distributed to anyone who wants to send encrypted messages. The public exponent, e, serves as a magic number that unlocks the encryption process, while the larger number, n, forms the foundation of the encryption algorithm. Together, they enable secure communication between the sender and the recipient, allowing encrypted messages to be exchanged.</sub>
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<h4>📂 Encryption: To encrypt a message M, compute C = (M^e) % n</h4>→
<sub class=‘predescription’>
Imagine you have a secret message. Put that message inside a special box, raise it to the power of the magic number, and take the remainder when divided by the larger number. The result is the encrypted message.
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<sub class=‘description’>Encryption is like putting a secret message inside a special box and transforming it into an unreadable form. To encrypt a message M, we use a mathematical calculation. We raise the message to the power of the public exponent, e, and then take the remainder when divided by the larger number, n. This process of exponentiation and modulo operation transforms the message into a ciphertext, represented by C. It’s like sealing the secret message inside an unbreakable box, ensuring that only the intended recipient with the private key can unlock and read it.</sub>
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<h4>🔓 Decryption: To decrypt the ciphertext C, compute M = (C^d) % n</h4>
<sub class=‘predescription’>→
If you have the encrypted message and the secret numbers, take the encrypted message, raise it to the power of the secret number, and take the remainder when divided by the larger number. The result will be the original secret message.
</sub>
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<sub class=‘description’>Decryption is like opening the sealed box and revealing the original secret message. To decrypt the ciphertext C, we perform a similar mathematical calculation. We raise the ciphertext to the power of the private exponent, d, and then take the remainder when divided by the larger number, n. This process of exponentiation and modulo operation reverses the encryption process, transforming the ciphertext back into the original message, represented by M. It’s like using a special key to unlock the sealed box and retrieve the hidden treasure inside. By using the private key associated with the public key used for encryption, only the intended recipient can decrypt and read the message.</sub>
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