Fruits Eco-Blockchain Project: Whitepaper ver4.0.0
  • Fruits Eco-Blockchain Project: Whitepaper version4.0.0
  • Foreword
  • Abstract
  • 1. Basic development of FSFP(Fruits Social Finance Platform)
    • 1-1. The FRUITS Multi-layered Smart Contract
    • 1-2. The FRUITS Service Configuration Diagram
    • 1-3. "Fruits SDGs Station" - the mechanism for expanding the FRUITS ecosystem around the world
    • 1-4. Charity activities in partnership with international external organizations
    • 1-5. Cryptocurrency Regulations in African Countries
    • 1-6. Overview of FRUITS PoC Technology and Original Blockchain
      • 1-6-1. Decentralized Network of FRUITS
      • 1-6-2. High-Speed Transactions
      • 1-6-3. Low Power Consumption
      • 1-6-4. High Security
      • 1-6-5. Security Audit
      • 1-6-6. FRUITS Token Layout
  • 2. Realization of the gold standard and operationalization of the FSFP
    • 2.1 Cryptocurrency
    • 2-2. NFT (Non-Fungible Token)
    • 2-3. Electronic Transactions
    • 2-4. Future developments (CIP, refineries and blockchain, individual rights and public interest)
  • Roadmap
  • Team Members and Advisors
  • Disclaimer
  • Risks and Disclosures
  • FRUITS Official Links
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  1. 1. Basic development of FSFP(Fruits Social Finance Platform)
  2. 1-6. Overview of FRUITS PoC Technology and Original Blockchain

1-6-2. High-Speed Transactions

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Last updated 1 year ago

A mechanism to allow different tokens to coexist in the same blockchain

FRUITS allows for the creation of original tokens. However, managing a separate block for each token would increase the data size, complicate the storage method, and slow down the PoC mining process. Thus, FRUITS solves this problem in the following way:

As shown in Figure 14, the maximum number of transactions that can be recorded in each block is 256, and a masking filter is added to the header of the contract (data structure before encryption) of this base transaction.

The masking filter is set to 32 bits (= 4 bytes). The number of combinations is 232 = 4,294,967,296, which is about 4.3 billion. By adding this to the head and storing a total of 256 transactions in each block, about 4.3 billion different tokens can be stored with the same hash formula. In other words, the conventional method of recording hash data in PoC can only control one type of token per one type of encryption method, but with this method, a large number of tokens can be handled.

In addition, this method can also achieve high-speed processing when retrieving information recorded in a block. During actions, such as, allowing services like transaction sites to reference transactions and view recorded information, with this filter, you can instantly search and display only the necessary data from a huge amount of data at high speed.

Figure 14: Mechanism to allow different tokens to coexist in the same blockchain
Figure 15: Instantaneous sorting