Transaction Vector Configurator for Network Transaction Processing
Find Innovative SolutionsGenerate Solutions
Solution Overview
Problem
Conventional networking systems are inefficient due to excessive storage requirements and significant processing power needed to manage and execute network transactions, leading to wasted resources and reduced flexibility.
Innovation Solution
The implementation of transaction vectors that include key transaction attributes and a ledger specification to define and facilitate valid network transactions, allowing for consolidated storage and adaptive execution of transactions.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Reliability
If conventional systems store separate computer code or transaction data for each network transaction independently in a database, then the system can maintain detailed transaction records, but the storage requirements expand substantially as networks grow larger and more transactions occur
Solution Approach 1:
The patent combines multiple separate transaction data elements into a unified transaction vector data structure. Instead of storing separate computer code and transaction data independently in a database, the system merges them into a single vector that contains all necessary transaction information in a compact format, thereby reducing overall storage requirements while maintaining complete transaction records
Solution Approach 2:
The transaction vector serves multiple functions simultaneously: it stores transaction attributes, encodes asset flow information, defines execution logic, and enables validation. This multi-functional approach eliminates the need for separate database entries for each transaction aspect, reducing storage capacity requirements while maintaining comprehensive transaction documentation
2Adaptability or versatility
If existing systems process transaction requests by communicating across large numbers of internal network components and externally internet-based systems, translating every transaction request and separately accessing asset flows, then the system can handle diverse transaction types, but significant computer processing power is required
Solution Approach 1:
The patent performs preliminary action by pre-defining transaction pipelines and encoding execution logic within the transaction vector itself. Instead of translating every transaction request at processing time, the system prepares the execution path in advance by incorporating the ledger specification and asset flow access instructions directly into the vector, reducing real-time processing power requirements while maintaining versatility
Solution Approach 2:
The system creates a self-contained copy of the transaction execution blueprint within the transaction vector. By embedding the ledger specification and pipeline definition directly in the vector rather than accessing external systems for each transaction type, the system reduces the need for repeated communication across network components and external internet-based systems, thereby reducing processing power consumption
3Adaptability or versatility
If conventional systems redefine the transaction pipeline for each request by translating every transaction request and dedicating resources to separately determine relevant accounts and assets, then the system can accommodate different requests, but the process becomes computationally expensive especially where transactions occur frequently
Solution Approach 1:
The patent introduces dynamics by making the transaction pipeline definition flexible and adaptive within the vector structure. The system can dynamically adjust the execution path based on the specific transaction vector provided, allowing different requests to be accommodated without redefining the entire pipeline. This dynamic approach maintains request adaptability while improving processing efficiency by avoiding repeated pipeline redefinition
Solution Approach 2:
The system changes parameters by encoding the transaction-specific configuration directly within the vector rather than requiring external parameter lookup for each request. By incorporating the ledger specification, asset flow identifiers, and execution logic as parameters within the vector itself, the system eliminates the need to separately determine relevant accounts and assets for each request, thereby reducing computational expense while maintaining full request adaptability
4Manufacturing precision
If existing systems rigidly and painstakingly redefine the transaction data for each individual transaction request, then the system can ensure data accuracy, but latency increases that ties up computing device resources and prevents them from performing other functions
Solution Approach 1:
The patent applies preliminary action by validating and structuring transaction data within the vector before execution. The transaction vector is prepared in advance with all necessary attributes and specifications, ensuring data accuracy is verified beforehand rather than during processing. This preliminary validation maintains manufacturing precision while reducing latency by preventing rework during execution
Solution Approach 2:
The system creates a complete copy of the validated transaction specification within the vector, eliminating the need to repeatedly access or re-validate the same data during processing. By embedding all necessary transaction data and validation rules directly in the vector, the system ensures data accuracy is preserved while minimizing the time computing devices are tied up, thereby reducing latency
Data Source
AI summary
This disclosure describes a vector configurator system that, as part of an inter-network facilitation system, can generate and utilize transaction vectors for facilitating network transactions among digital accounts of an inter-network facilitation system. For example, the disclosed systems can generate a transaction vector that includes a unique set of key attributes defining parameters for a network transaction and that further includes a ledger specification indicating computer code for how to execute the network transaction. Upon receiving a transaction request, the disclosed systems can access a repository of transaction vectors to determine whether a corresponding vector exists for the request. The disclosed systems can either validate or reject the transaction request based on the existence or nonexistence of a transaction vector for the request. The disclosed systems can further execute or process a network transaction for the request according to a stored transaction vector corresponding to the request.