We are a project dedicated to rapidly bringing the blockchain quantum problem to a “resolved” state.

Concept

>> The Causality Embedded in SHA-256

Token Allocation

The SS256 token is designed as a long-term utility to support research, validation, and gradual deployment of quantum-resistant technologies, rather than short-term speculation.

The allocation is defined as follows:

Marketing: 10%

Used to communicate research outcomes accurately and to raise awareness that practical solutions are achievable.

Quantum-Resistant Cryptographic Hash Development: 40%

Allocated to the core research, design, and validation of quantum-resistant hash functions.
We have developed a quantum-resistant cryptographic hash function, whose internal structure is based on number-theoretic constructions.
>> https://www.iuec.co.jp/quantum-resistant-hash-sora2

Ecosystem Support (Developers and Validators): 20%

Intended to support implementation contributors, validators, and collaborative research participants.

Reserve and Long-Term Research Fund: 30%

Reserved to ensure adaptability to future advances in quantum computing and cryptographic research. This allocation prioritizes sustainability, technical integrity, and long-term network stability.

Satoshi is SHA-256 (SS256) Whitepaper

Our white paper is a serialized research publication on Publish0x.

It covers a wide range of topics - from the overview of the SHA-256 imprint, the characteristics of hash functions, and the mystery of the SHA-256 imprint that cannot be reached through the standard SHA-256 code, to the development and verification of our quantum- and ASIC-resistant cryptographic hash function, as well as supporting research in number theory.

You can access it from the link below!

>> The Emergence of a Decodable Imprint in SHA-256 - A Possible Message Left by Satoshi: 1. Introduction

>> The Emergence of a Decodable Imprint in SHA-256 - A Possible Message Left by Satoshi: 2. Theoretical Foundations Underlying the SHA-256 Imprint

>> The Emergence of a Decodable Imprint in SHA-256 - A Possible Message Left by Satoshi: 3. The Relationship Between Segregated Witness and the SHA-256 Imprint

>> The Emergence of a Decodable Imprint in SHA-256 - A Possible Message Left by Satoshi: 4. The Relationship Between the Aggregated Witness and the SHA-256 Imprint

>> The Emergence of a Decodable Imprint in SHA-256 - A Possible Message Left by Satoshi: 5. Statistical Uniformity and Cryptographic Collision Resistance - The Hidden Decorrelation

>> The Emergence of a Decodable Imprint in SHA-256 - A Possible Message Left by Satoshi: 6. Computational Optimization for Accessing the SHA-256 Imprint - Structural Reconsideration of CSHA256 (Part 1)

>> The Emergence of a Decodable Imprint in SHA-256 - A Possible Message Left by Satoshi: 7. The Two Witnesses - The Moment When Segregated Witness (SegWit) and Aggregated Witness (AggWit) Converge, and the Compression of Space

>> The Emergence of a Decodable Imprint in SHA-256 - A Possible Message Left by Satoshi: 8. Selection of Quantum Algorithms in the Current Blockchain and the Number-Theoretic Compressed Structure in |3n - m|

>> Rapid Resolution of Quantum Threats in Blockchain Systems

This paper is far from over - there's still so much more to write.