Technology overview

Architecture of Cyclone Blockchain

Cyclone blockchain is built upon an open Byzantine Fault Tolerance (BFT) protocol, leveraging Bitcoin addresses and cryptography for its operations. This innovative architecture combines the security of BFT with the familiarity and robustness of Bitcoin's network.

Basic Principle and Consensus Mechanisms

At its core, Cyclone operates on the principle of decentralized consensus, ensuring agreement among network participants on the validity of transactions and the state of the blockchain. The consensus mechanism employed by Cyclone is an open BFT protocol, which allows for high fault tolerance and resilience against malicious actors.

Utilized Technologies

In terms of underlying technologies, Cyclone integrates Bitcoin-like addresses and cryptographic techniques to ensure secure and transparent transactions within the network. By leveraging these well-established technologies, Cyclone inherits their proven track record of security and reliability.


Global Industry Acceleration

Cyclone was conceived and designed as a completely new transformative technology of inclusivity and unprecedented possibilities. By carrying out its mission to unite Web2 and Web3, an inevitable bonus is lower costs and streamlining of any project development!

For all: Maximum Inclusivity

Criterion
Web2
Web3 (Existing Layer 1)
Web3 with Cyclone

Accessibility

Easy

Difficult

Easy

Security

Low

Medium

High

Decentralization

Low

High

High

Asset Control

Low

High

High + Expanded

Application Diversity

High

Limited

Expanded

User Friendliness

High

Low

High

Fees

Low

Medium

Low & Fixed

Transaction Speed

High

Medium

High

Scalability

High

Limited

Very High + Sharding

For Developers: It's a tool limited only by imagination.

Criterion
Web2
Web3
Web3 with Cyclone

Language Choice

Wide

Limited

Expanding

Frameworks

Established

New

Any

Community

Large

Growing

Unified

Experienced Developers

Easier to find

Shortage

Influx from Web2

Salaries

Relatively lower

Higher

Median

Components in status Ready (05\01\24)

Full Node: The backbone of the network, maintaining the ledger's integrity.

Tiny Client: A lightweight tool for basic interactions with the blockchain.

Blockchain Explorer: Allows users to view transaction histories and network activities.

Faucet: Provides free tokens for testing and development purposes.

Web Built-in Wallet: An easily accessible wallet for managing assets.

Google Chrome Browser Wallet Add-on: Enhances browser functionality with integrated wallet features.

Gaming Portal and Games: Demonstrates blockchain utility in entertainment.

Utilities for Smart-Contract Deployment and Testing: Assists developers in launching and evaluating smart contracts

Speed & Usability

Contemporary platforms built on blockchain technology, though not being blockchains themselves, often tout their enhanced capacity for handling large volumes of transactions as a key selling point. Yet, the boasted TPS only becomes a factor of importance if the platform achieves a level of utilization that necessitates such high transaction capacity. To draw a parallel, constructing a vast arena capable of accommodating 300M spectators in a remote location where there's no demand is illogical.

Therefore, the primary challenge that needs immediate attention is devising a way for developers to seamlessly craft applications that not only attract users but also ensure a lasting value creation for the developers themselves and provide them with fundamental technology that offers flexible growth potential and scalability based on demand.

Although some improvements can be implemented at the application layer, the foundational adjustments that truly matter must occur at the base protocol layer of the technology and cannot simply be added as an afterthought.

Scalability

Consensus FBFT (Federal Byzantine Fault Tolerance), which has proven itself in Monolithic architectures like Ripple and Stellar Lumen, is potentially unlimited in scalability given the correct implementation and especially within the context of Microservices architecture.

To achieve scalability and ensure sustainability for the long term, a protocol needs to efficiently distribute both its storage requirements and computational tasks. This becomes critical as a platform gains widespread usage, making it impractical for a single server to manage the entirety of the blockchain's data or validate every transaction.

The Cyclone employs a strategy of Sharding, enhancing the network's throughput as more nodes join in. This method involves the network's automatic segmentation into several shards when the activity levels necessitate such division, allowing for computations to occur in parallel across these shards. Consequently, the network's capacity to handle transactions expands in direct response to growing user demand and potentially unlimited.

Recent advancements in blockchain sharding have focused on differentiating transactions that occur within the same shard from those that cross shards, optimizing the process for the former while the latter experiences slower processing times. Cyclone Protocol, however, anticipates that transactions will typically involve multiple shards, especially in the case of complex smart contracts, and has tailored its performance optimization strategies with this assumption in mind.

Flexibility

Cyclone has the ability to modification of system components, including the transport layer, consensus protocol, storage, and virtual machines. If necessary, we are capable of making radical changes even within the context of a network that is already runed.

Interoperability & Cross-Chain

Cyclone offers a seamless and rapid way to build integration with the most popular crypto platforms, ensuring fast and easy adoption. Cyclone adaptability for fust integration with various third-party systems is unmatched.

In development bridges:

Polygon, Ethereum, BNB, Solana, Cosmos, Ton

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