Security Warning: Cryptographic Flaws in OCTADE's KSRNG, MegaRand, and GOLDILOCKER
From
Battosai@cuadratica@protonmail.com to
sci.crypt on Thu Sep 25 05:53:57 2025
From Newsgroup: sci.crypt
To the sci.crypt community,
I am writing to alert members about serious cryptographic flaws and misrepresentations in software packages recently posted by Byrl Raze
Buckbriar (OCTADE), specifically: KSRNG, MegaRand, and GOLDILOCKER 448.
As a researcher working with information-theoretic security and
cryptographic implementations, I have identified fundamental errors
that render these tools cryptographically dangerous.
== KSRNG (Key Strike Random Generator) ==
Claim: "Generates very, very random seeds that are truly random."
Analysis:
- Primary entropy source is /dev/urandom (CSPRNG), not true randomness
- Keystroke timing provides minimal entropy (1-2 bits/keystroke)
- Extensive shuffling/hashing operations cannot increase entropy
- Marketing as "true random" is scientifically inaccurate
== MegaRand ==
Claim: "Builds a large random entropy pool with no period, pattern, or bias."
Analysis:
- Relies on /dev/urandom while claiming "true randomness"
- Complex file structure provides zero cryptographic benefit
- Final step encrypts random data with itself (cryptographic nonsense)
- Computationally expensive security theater
== GOLDILOCKER 448 ==
Claim: "Generates Goldilocks (ED448) keys from a seed phrase."
Analysis:
- ED448 requires random generation; deterministic creation violates
elliptic curve security assumptions
- Manual construction of OpenSSL key headers demonstrates fundamental
misunderstanding of cryptographic formats
- Misuse of BIP39 specification without checksums or proper encoding
- Will produce cryptographically broken keys
== Common Patterns ==
All three implementations exhibit:
1. Reliance on /dev/urandom while claiming "true randomness"
2. Computationally expensive operations that provide no cryptographic benefit 3. Fundamental misunderstandings of entropy and cryptographic primitives
4. Marketing claims that contradict actual implementation
== Security Implications ==
These tools pose actual risks to users:
- False sense of security through "cryptographic theater"
- Potential use in production systems where security is critical
- Wasted computational resources for zero security benefit
== Recommendations ==
1. Avoid these implementations for any security-sensitive purpose
2. Use established, peer-reviewed cryptographic libraries
3. Verify cryptographic claims against academic literature
4. Report potentially dangerous cryptographic misinformation
I welcome discussion and peer review of these findings.
- Battosai
Cryptography Researcher
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From
Battosai@cuadratica@protonmail.com to
sci.crypt on Thu Sep 25 06:18:37 2025
From Newsgroup: sci.crypt
Critical Analysis: Cryptographic Misrepresentations in "OCTADE's"
Software Suite
To the sci.crypt community,
I am writing to alert members about serious cryptographic flaws and misrepresentations in software packages recently posted by Byrl Raze
Buckbriar (OCTADE), specifically: KSRNG, MegaRand, and GOLDILOCKER 448.
As a researcher working with information-theoretic security and
cryptographic implementations, I have identified fundamental errors
that render these tools cryptographically dangerous.
== KSRNG (Key Strike Random Generator) ==
Claim: "Generates very, very random seeds that are truly random."
Analysis:
- Primary entropy source is /dev/urandom (CSPRNG), not true randomness
- Keystroke timing provides minimal entropy (1-2 bits/keystroke)
- Extensive shuffling/hashing operations cannot increase entropy
- Marketing as "true random" is scientifically inaccurate
== MegaRand ==
Claim: "Builds a large random entropy pool with no period, pattern, or bias."
Analysis:
- Relies on /dev/urandom while claiming "true randomness"
- Complex file structure provides zero cryptographic benefit
- Final step encrypts random data with itself (cryptographic nonsense)
- Computationally expensive security theater
== GOLDILOCKER 448 ==
Claim: "Generates Goldilocks (ED448) keys from a seed phrase."
Analysis:
- ED448 requires random generation; deterministic creation violates
elliptic curve security assumptions
- Manual construction of OpenSSL key headers demonstrates fundamental
misunderstanding of cryptographic formats
- Misuse of BIP39 specification without checksums or proper encoding
- Will produce cryptographically broken keys
== Common Patterns ==
All three implementations exhibit:
1. Reliance on /dev/urandom while claiming "true randomness"
2. Computationally expensive operations that provide no cryptographic benefit 3. Fundamental misunderstandings of entropy and cryptographic primitives
4. Marketing claims that contradict actual implementation
== Security Implications ==
These tools pose actual risks to users:
- False sense of security through "cryptographic theater"
- Potential use in production systems where security is critical
- Wasted computational resources for zero security benefit
== Recommendations ==
1. Avoid these implementations for any security-sensitive purpose
2. Use established, peer-reviewed cryptographic libraries
3. Verify cryptographic claims against academic literature
4. Report potentially dangerous cryptographic misinformation
I welcome discussion and peer review of these findings.
- Battosai
Cryptography Researcher
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