Sure, here is a Python solution for the Caesar Cipher function:

```python
def caesarCipher(s, k):
encrypted_string = ""
for i in s:
if i.isalpha():
ascii_offset = ord('a') if i.islower() else ord('A')
encrypted_string += chr((ord(i) - ascii_offset + k) % 26 + ascii_offset)
else:
encrypted_string += i
return encrypted_string
```

Here's how it works:

1. We initialize an empty string `encrypted_string` to store the result.
2. We iterate over each character `i` in the input string `s`.
3. If the character `i` is an alphabet letter (checked using `isalpha()`), we calculate its encrypted version. We first determine the ASCII value of 'a' or 'A' depending on whether `i` is a lowercase or uppercase letter. This is stored in `ascii_offset`.
4. We then find the ASCII value of `i`, subtract `ascii_offset` from it, add `k` (the rotation factor), and then find the remainder when divided by 26 (the number of letters in the English alphabet). This gives us the ASCII value of the encrypted letter, to which we add `ascii_offset` to get back into the correct ASCII range for alphabetic characters. We convert this ASCII value back to a character using `chr()` and append it to `encrypted_string`.
5. If `i` is not an alphabet letter, we simply append it to `encrypted_string` as it is.
6. Finally, we return `encrypted_string` as the result.

Question

Sure, here is a Python solution for the Caesar Cipher function:

```python
def caesarCipher(s, k):
    encrypted_string = ""
    for i in s:
        if i.isalpha():
            ascii_offset = ord('a') if i.islower() else ord('A')
            encrypted_string += chr((ord(i) - ascii_offset + k) % 26 + ascii_offset)
        else:
            encrypted_string += i
    return encrypted_string
```

Here's how it works:

1. We initialize an empty string `encrypted_string` to store the result.
2. We iterate over each character `i` in the input string `s`.
3. If the character `i` is an alphabet letter (checked using `isalpha()`), we calculate its encrypted version. We first determine the ASCII value of 'a' or 'A' depending on whether `i` is a lowercase or uppercase letter. This is stored in `ascii_offset`.
4. We then find the ASCII value of `i`, subtract `ascii_offset` from it, add `k` (the rotation factor), and then find the remainder when divided by 26 (the number of letters in the English alphabet). This gives us the ASCII value of the encrypted letter, to which we add `ascii_offset` to get back into the correct ASCII range for alphabetic characters. We convert this ASCII value back to a character using `chr()` and append it to `encrypted_string`.
5. If `i` is not an alphabet letter, we simply append it to `encrypted_string` as it is.
6. Finally, we return `encrypted_string` as the result.

Knowee AI · Accepted Answer

Sure, here is a Python solution for the Caesar Cipher function:

```python
def caesarCipher(s, k):
    encrypted_string = ""
    for i in s:
        if i.isalpha():
            ascii_offset = ord('a') if i.islower() else ord('A')
            encrypted_string += chr((ord(i) - ascii_offset + k) % 26 + ascii_offset)
        else:
            encrypted_string += i
    return encrypted_string
```

Here's how it works:

1. We initialize an empty string `encrypted_string` to store the result.
2. We iterate over each character `i` in the input string `s`.
3. If the character `i` is an alphabet letter (checked using `isalpha()`), we calculate its encrypted version. We first determine the ASCII value of 'a' or 'A' depending on whether `i` is a lowercase or uppercase letter. This is stored in `ascii_offset`.
4. We then find the ASCII value of `i`, subtract `ascii_offset` from it, add `k` (the rotation factor), and then find the remainder when divided by 26 (the number of letters in the English alphabet). This gives us the ASCII value of the encrypted letter, to which we add `ascii_offset` to get back into the correct ASCII range for alphabetic characters. We convert this ASCII value back to a character using `chr()` and append it to `encrypted_string`.
5. If `i` is not an alphabet letter, we simply append it to `encrypted_string` as it is.
6. Finally, we return `encrypted_string` as the result.

Complete the caesarCipher function in the editor below.caesarCipher has the following parameter(s):string s: cleartextint k: the alphabet rotation factorReturnsstring: the encrypted string

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