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The TFSC blockchain utilizes a decentralized P2P network where all nodes are equal and perform the same functions. Let’s look at how the TFSC network infrastructure is organized.
The TFSC network is built on the principle of full connectivity between nodes. Each node is directly connected to all others in the network. This allows for high transaction speeds, reliability, and low latency.
Archiving — storing the full history of blocks
Validation — verifying transactions
Broadcasting — transmitting blocks and transactions
Synchronization — onboarding new nodes
Monitoring — checking connectivity health
API — for external queries
Each node has a unique identifier that is checked against an allowed node list. This guarantees authenticity of nodes on the network.
To enable fair load distribution, validator nodes are randomly selected. This prevents unfair selection based on network speed.
Stable TCP protocol is used for message exchange. Data is first cached, then distributed by the transaction dispatcher, and processed by various functions.
Communication is implemented via a node list that stores info about all connected nodes. This allows efficient message routing. The node list is dynamically updated as new nodes connect.
Registration and heartbeat mechanisms maintain up-to-date data. Registration checks potential connectivity between nodes, heartbeats periodically check their health.
For optimal performance, the TFSC network limits nodes to 500–1000. If exceeded, some nodes get temporarily restricted from transacting. This retains the advantages of full connectivity.
In summary, the TFSC network represents a fully decentralized topology with mechanisms optimized for a target scale. This provides high speed, reliability and security.
The TFSC blockchain utilizes a decentralized P2P network where all nodes are equal and perform the same functions. Let’s look at how the TFSC network infrastructure is organized.
The TFSC network is built on the principle of full connectivity between nodes. Each node is directly connected to all others in the network. This allows for high transaction speeds, reliability, and low latency.
Archiving — storing the full history of blocks
Validation — verifying transactions
Broadcasting — transmitting blocks and transactions
Synchronization — onboarding new nodes
Monitoring — checking connectivity health
API — for external queries
Each node has a unique identifier that is checked against an allowed node list. This guarantees authenticity of nodes on the network.
To enable fair load distribution, validator nodes are randomly selected. This prevents unfair selection based on network speed.
Stable TCP protocol is used for message exchange. Data is first cached, then distributed by the transaction dispatcher, and processed by various functions.
Communication is implemented via a node list that stores info about all connected nodes. This allows efficient message routing. The node list is dynamically updated as new nodes connect.
Registration and heartbeat mechanisms maintain up-to-date data. Registration checks potential connectivity between nodes, heartbeats periodically check their health.
For optimal performance, the TFSC network limits nodes to 500–1000. If exceeded, some nodes get temporarily restricted from transacting. This retains the advantages of full connectivity.
In summary, the TFSC network represents a fully decentralized topology with mechanisms optimized for a target scale. This provides high speed, reliability and security.
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