Specifics
The page provides an overview of key features of the ITA Blockchain, including network parameters, network architecture, unique Proof-of-Game consensus, and comparison with other blockchains.
1. Challenges of Traditional Blockchain Models
Proof-of-Work (PoW)
High Energy Consumption
Mining requires substantial computational resources, leading to significant electricity usage.
Expensive Hardware
Effective mining necessitates specialized devices (ASICs, GPUs), limiting participation to larger entities.
Lack of Useful Work
Most computational power is spent on arbitrary calculations, offering no direct benefit.
Proof-of-Stake (PoS)
Centralization Risks
The concentration of tokens among a few participants can lead to reduced decentralization.
High Entry Barriers for Validators
Significant token holdings are required for block validation, discouraging smaller participants.
2. ITA’s Solution
ITA Blockchain replaces traditional computational work with gaming activity, converting player efforts into valuable network operations. This approach:
Reduces energy consumption.
Increases user engagement.
Expands decentralization by involving a broader range of participants from the gaming community.
3. Network Parameters
ITA Blockchain achieves a balance between speed, reliability, and security with optimized parameters. At the core are optimized parameters that allow the network to process transactions efficiently and integrate Proof-of-Game.
Block Time
10–30 seconds, ensuring rapid transaction confirmations.
Consensus Algorithm
A modified ETHASH incorporating Proof-of-Game metrics.
Throughput
Comparable to Ethereum, handling ~15-100+ transactions per second (TPS) based on optimizations.
Block Size
Adaptive, depending on the volume of transactions and Proof-of-Game data.
Parameter
Ethereum
ITA Blockchain
Block Time
~15 seconds
10-30 seconds
Consensus Algorithm
Proof-of-Stake (Casper)
Proof-of-Game (modified Ethash)
Throughput
~15 TPS (up to 100+ with upgrades)
~15-100+ TPS
Block Size
~1-2 MB.
Adaptive, scalable
For a detailed comparison with Ethereum, refer to the provided table.
4. Network Architecture
The ITA Blockchain architecture ensures reliability, security, and seamless integration with gaming projects.
Gaming Client
Lightweight software that does not burden GPU/CPU/RAM resources provides continuous analytics of gaming activity and payload generation for the network.
Masternodes
Basic work of validating blocks and hashes, ensuring the security and integrity of the network.
API
The unique API allows any game projects to be integrated into the ITA network, to track game activity and additionally reward players for high performance in a specific game.
5. Table of comparison with other blockchains
Parameter
ITA Blockchain
Ethereum
Bitcoin
Consensus
Proof-of-Game (PoG)
Proof-of-Stake (PoS)
Proof-of-Work (PoW)
Payload utility
High (Useful gaming activities)
Low (Focused on security only)
Low (Focused on security only)
Decentralization
High (Broad participation via gaming nodes)
Medium (Token concentration risks)
High (Many nodes, but high hardware costs)
Energy consumption
Low
Low
High
Integration with games
Yes
No
No
Block Time
10–30 seconds
~15 seconds
~10 minutes
Throughput
TPS ~15-100+
TPS ~15-100+
TPS ~7 TPS
Security mechanisms
Proof-of-Useful-Work, ML-analysis
Proof-of-Stake, Casper
Proof-of-Work, ASIC optimization
6. Comparative Analysis with Traditional Blockchains
ITA Blockchain offers a unique approach to addressing challenges commonly associated with traditional blockchain systems. The table below highlights the key differences between ITA Blockchain, Ethereum, and Bitcoin, including consensus mechanisms, workload utility, decentralization, energy consumption, and more.
This comparison showcases ITA Blockchain’s advantages and its potential in the gaming industry and beyond.
CONSENSUS MECHANISM
ITA Blockchain
Utilizes Proof-of-Game (PoG), integrating gaming activity with network consensus, enabling useful workloads tied to in-game actions.
Ethereum
Transitioned from Proof-of-Work (PoW) to Proof-of-Stake (PoS) through Ethereum 2.0, reducing energy consumption and increasing transaction speeds.
Bitcoin
Employs Proof-of-Work, which demands significant computational resources and energy consumption for mining.
UTILITY OF WORKLOAD
ITA Blockchain
High utility, as computational resources validate gaming actions that directly benefit the network.
Ethereum / Bitcoin
Low utility, as PoW and PoS focus solely on network security without providing additional functional benefits.
DECENTRALIZATION
ITA Blockchain
High decentralization, achieved through the participation of a broad range of gamers and diverse masternodes, preventing power concentration.
Ethereum
Moderate decentralization, as PoS may lead to token concentration among large validators.
Bitcoin
High decentralization due to widespread node distribution, though PoW’s high equipment costs can foster centralization.
ENERGY CONSUMPTION
ITA Blockchain
Low energy consumption, as PoG does not utilize GPUs for mining.
Ethereum
Low consumption after transitioning to PoS.
Bitcoin
High consumption due to PoW’s computational demands.
INTEGRATION WITH GAMING
ITA Blockchain
Yes, provides tools and mechanisms for seamless integration with gaming projects.
Ethereum / Bitcoin
No, neither blockchain is designed for direct integration with gaming platforms.
BLOCK TIME
ITA Blockchain
10–30 seconds, balancing speed and security.
Ethereum
~15 seconds.
Bitcoin
~10 minutes, significantly limiting transaction speed.
TRANSACTION THROUGHPUT
ITA Blockchain
~15–100+ TPS, comparable to Ethereum, with scalability potential.
Ethereum
~15 TPS (scalable to 100+ TPS with updates).
Bitcoin
~7 TPS, restricting transaction volume.
SECURITY MECHANISMS
ITA Blockchain
Employs Proof-of-Useful-Work and machine learning to analyze gaming activity, enhancing security and preventing fraud.
Ethereum
Implements PoS with Casper, ensuring security through token staking.
Bitcoin
Relies on PoW optimized for ASIC hardware, maintaining high security via computational costs.
7. Masternodes
Masternodes in ITA Blockchain are pivotal to the network’s functionality, offering:
Block and hash validation
Network synchronization
Stability and decentralization
For further details, refer to the “Masternodes → Overview” section.
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