SCH382 uses 62 digits with 64 character keys. This approximately ≈ 5.2×10^14 × a googol ( 10^100)
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Input Processing and Initial Conversion
- Receive an input string.
- Calculate a new string by adding a fixed number to the input string's integer representation, raising the result to a power, dividing by another fixed number, and converting to a string.
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String Segmentation and Augmentation
- Split this string into segments, alternating between 3 and 1 characters in length.
- Convert each segment into an integer and add a fixed number to each.
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Iterative Combination
- Combine these numbers through a sequence of multiplications and divisions, alternating operations based on the position in the sequence.
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Reverse and Base Conversion
- Reverse the digits of the final number and convert it into binary, ensuring it is a 256-character string.
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Expansion and Fibonacci Modification
- Expand this binary string to 512 characters by repeatedly:
- Modifying it based on the remainder of division by a fixed number plus one.
- Adding a sequence-derived number raised to a power plus one to the modification.
- Reversing the digits of the new number at each step.
- Expand this binary string to 512 characters by repeatedly:
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Decoding and Re-Encoding
- Split the 512-character binary string into two equal parts.
- Decode each part from binary to decimal.
- Combine these decimals through addition, double the result, and re-encode into a base using a subset of printable characters.
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Final Encoding and Truncation
- Encode the entire 512-character binary string into a high base using another subset of printable characters, excluding the first character from the result.
- Decode this string back to decimal, then re-encode into base-62, truncating to the last 64 characters.
- Take an input string and apply mathematical transformations to it, obtaining a new string representation.
- This transformation involves:
- Adding a predetermined number to the input's numerical value.
- Raising the result to a specified power.
- Dividing by another predetermined number.
- Converting the final number to a string.
- Segment this new string into pieces, alternating between lengths of three and one characters.
- Adjust each segment by converting to an integer and adding a fixed value.
- Sequentially combine these adjusted values, alternating between multiplication and division, based on their sequence position.
- Reverse the digits of the final combined value and convert it to a binary string, adjusting its length to 256 characters by padding with zeros.
- Expand this binary representation to 512 characters by:
- Determining a modification factor based on the remainder of division by 17 plus one.
- Calculating a sequence-derived value, raising it to the modification factor, and incrementing by one.
- Adjusting the binary number by this calculated value and a division operation, then incrementing.
- Reversing the digits of the result after each iteration.
- Once the binary string reaches the desired length, split it into two halves.
- Convert each half from binary to decimal.
- Sum these decimal values, double the sum, and encode into a new base using a specific character set.
- Encode the entire 512-character binary string into a higher base, excluding the first character of the result.
- Decode this high-base string back to decimal and finally re-encode it into base-62, keeping only the last 64 characters of this encoding.
import math
import string
import numpy as np
def s2b(s): return ''.join(bin(ord(c))[2:].zfill(8) for c in s)
def base(d, b):
c, n, r = string.printable[:90], 1, d
while r >= b ** n: r -= b ** n; n += 1
s = ""
while r > 0: s = c[r % b] + s; r //= b
return s.zfill(n)
def inverse(c, b):
chars = string.printable[:90]
v, l = 0, len(c)
for i, ch in enumerate(reversed(c)):
v += chars.index(ch) * (b ** i)
return v + sum(b ** i for i in range(1, l))
def cF(m):
if m == 0: return 1
a, b = 1, 2
for _ in range(m - 1): a, b = b, a + b
return b
def sDeterminer(s):
r, i, p, s = [], 0, [], str((s+7)**8 // 3)
while i < len(s):
r.append(s[i:i + (3 if len(r) % 2 == 0 else 1)])
i += 3 if len(r) % 2 == 0 else 1
for x in r: p.append(int(x) + 5)
f = p[0]
for i in range(1, len(p)): f = f * p[i] if i % 2 == 0 else f / p[i]
f = str(int(f))[::-1]
return base(int(f), 2)
def SCH382(s):
s, x = int(sDeterminer(s)[:256], 2), 5
while len(bin(s)[2:]) < 512:
x = s % 17 + 1
c = cF(x) ** x + 1
s += math.floor(s / x + c) + 1
s = int(str(s)[::-1])
# print(s, c, x)
s = bin(s)[2:]
s = s[:512]
a, b = inverse(s[:256], 2), inverse(s[256:], 2)
c = base((a + b) * 2, 9)
y = base(int(s), 89)[1:]
return base(inverse(y, 90), 62)[-64:]
for i in range(0, 10000):
result = SCH382(i)
print(result)
data = s2b('hello world!')
result = SCH382(inverse(data, 2))
result