Cryptographic Booster Packs for Fair, Lower-Waste Blockchain Mining
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Solution Overview
Problem
Existing blockchain systems face inefficiencies in mining processes that consume vast computational resources and electrical power, leading to environmental damage and wasted resources, while also lacking mechanisms for unpredictable and secure distribution of digital assets.
Innovation Solution
Implementing cryptographic booster packs represented by unique identifiers, which are opened through multi-step transactions involving miners, ensuring unpredictability and fairness in asset distribution, and utilizing multi-part transactions to share rewards among miners.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Reliability
If traditional mining processes are used to secure the blockchain and distribute digital assets, then the blockchain achieves security and decentralization, but vast computational resources and electrical power are consumed leading to environmental damage and resource waste
Solution Approach 1:
The patent segments the mining process into two distinct phases: a prediction phase where miners compete to predict the next block hash with minimal computational work, and a verification phase where the predicted block is validated. This segmentation replaces the traditional energy-intensive proof-of-work consensus mechanism with a much lighter computational process that maintains security through cryptographic verification rather than brute-force computation.
Solution Approach 2:
The patent substitutes the mechanical proof-of-work system (which relies on physical computational power and energy consumption) with a cryptographic prediction system. Instead of using physical resources to solve computationally difficult puzzles, miners use cryptographic functions to predict block hashes, replacing the mechanical energy-intensive process with a mathematical approach that consumes minimal energy while achieving the same security goals.
2Reliability
If traditional mining processes are used, then digital assets are distributed, but the distribution lacks unpredictability and fairness mechanisms
Solution Approach 1:
The patent implements preliminary action by requiring miners to predict the next block hash before the block is actually created. This prediction serves as a preliminary commitment that determines asset distribution outcomes in advance, ensuring unpredictability and fairness. The prediction is made using cryptographic functions that are deterministic yet unpredictable, providing a fair mechanism for asset distribution without requiring complex post-hoc verification or adjustment mechanisms.
3Reliability
If cryptographic booster packs are implemented for asset distribution, then unpredictability and fairness are ensured, but multi-step transactions and multi-part reward sharing increase system complexity
Solution Approach 1:
The patent implements multi-functionality by designing the block header structure to serve multiple purposes simultaneously: it contains the predicted hash for security consensus, the booster pack identifier for asset distribution, and the reward allocation information for miner compensation. This universal structure eliminates the need for separate transaction types or additional data structures, reducing overall system complexity despite the multi-step nature of the process.
Solution Approach 2:
The patent applies the nested doll principle by embedding multiple layers of information within the block header structure. The block header contains nested elements including the predicted hash, booster pack identifier, and reward allocations, all packaged within a single cryptographic structure. This nesting allows the system to handle complex multi-step transactions and multi-part reward sharing without requiring separate external structures or processes.
Data Source
AI summary
A facility for cryptographically securing booster packs using tear transactions is described.