Asynchronous Parallel Network Instruction Architecture for Blockchain
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Solution Overview
Problem
Existing blockchain and distributed cryptographic ledger systems face inefficiencies due to the need for synchronized instructions during token and asset transfers, which can lead to slow, costly, and resource-intensive operations, especially across different entity platforms.
Innovation Solution
An asynchronous and parallel instruction architecture is implemented, allowing for the separate optimization of token and asset transfers using parallel networks and intelligent batching, with self-executing programming objects (SEPOs) managing transfers on a distributed crypto-ledger, enabling real-time and secure token movements while batch processing associated assets.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Speed
If synchronized instructions are used for token and asset transfers in blockchain systems, then transfer security and consistency are maintained, but operation speed increases and resource efficiency deteriorates
Solution Approach 1:
The system segments the transfer process into two independent parallel processes: token transfer instructions executed on the distributed cryptographic ledger and asset transfer instructions executed on a separate network. This segmentation allows each process to be optimized independently and eliminates the bottleneck of synchronized execution, thereby improving both speed and resource efficiency.
Solution Approach 2:
The patent introduces a dimensional separation by implementing transfers across two different execution environments/dimensions: the blockchain layer for token transfers and a parallel network layer for asset transfers. This dimensional change enables asynchronous processing while maintaining the logical connection between token and asset transfers through correlated instruction pairs.
2Reliability
If synchronized instructions are used for token and asset transfers, then operational consistency is ensured, but system complexity and cost increase
Solution Approach 1:
By segmenting the instruction execution into separate parallel processes on different networks, the system reduces the complexity of coordination and synchronization mechanisms. Each network handles its own execution independently, eliminating the need for complex inter-network synchronization protocols while maintaining operational consistency through instruction correlation.
Solution Approach 2:
The system introduces an intermediary correlation mechanism that links token transfer instructions with asset transfer instructions without requiring tight synchronization. This intermediary layer maintains the logical relationship between transfers while allowing independent execution, thereby reducing system complexity.
3Productivity
If parallel asynchronous processing is implemented for token and asset transfers, then processing efficiency improves, but coordination difficulty increases
Solution Approach 1:
The parallel asynchronous processing architecture segments the transfer workflow into independent instruction pairs that can be processed concurrently. Each token transfer instruction is paired with a corresponding asset transfer instruction, allowing both to execute in parallel without interfering with each other, thereby maximizing processing efficiency while keeping coordination simple through the pairing mechanism.
Data Source
AI summary
A system having at least one processor of a distributed common entity platform, wherein the at least one processor is configured to perform steps to receive a transfer instruction associated with a transfer of a quantity of an asset from a sending entity platform to a receiving entity platform; execute a transfer manager self-executing programming object (SEPO) in response to a first function identifier to execute transfer management operations on a distributed ledger, managed by the distributed common entity platform; wherein the transfer management operations comprise executing an address SEPO in response to a second function identifier of a second instruction to execute address verification operations on the distributed ledger; minting at least one token in a sending wallet associated with the sending wallet address, wherein the at least one token comprises a tokenized version of the quantity of the asset based at least in part on the asset identifier and the quantity value, and transferring the at least one token from the sending wallet to a receiving wallet associated with the receiving wallet address.