🐍What We Do
Last updated
Last updated
Viper Network is a protocol that helps Web3 applications connect with blockchains in a safe and decentralized manner. It provides a trustless environment where Web3 applications can access and interact with blockchains without relying on any central authority by utilizing a decentralised network of nodes. Viper Network ensures that transactions are transparent, secure, and censorship-resistant, making it easier for developers to create Web3 applications that are decentralised and for users to trust the integrity of the blockchain ecosystem.
Geographically Distributed Nodes: Our security foundation rests on a decentralized network woven with nodes spread across the globe. These nodes, hosted by individuals globally through open participation, create a resilient fabric that resists localized threats. Picture it as a global fortress — an intricate network of thousands of nodes owned by diverse individuals. This strategic distribution makes attempts to compromise the network a formidable challenge, demanding control over a multitude of nodes dispersed worldwide.
Data Encryption: Every bit of data coursing through our network is shielded with robust encryption. This isn't just a security measure; it's a commitment to confidentiality. Imagine it as a secure vault where your data, transactions, and interactions are intelligibly scrambled, ensuring that sensitive information remains confidential and impervious to prying eyes.
Proof of Stake (PoS) Mechanism: Ensuring the integrity of our network involves a Proof of Stake (PoS) mechanism. To wrest control over the network, an entity would need to acquire ownership of over 33% of all tokens — a colossal and economically unfeasible task. PoS acts as a sentinel, standing guard against malicious actors by setting a high bar for control, fortifying the network's security and instilling confidence in its resilience.
No Single Point Of Failure: Implementation of a distributed node system is integral to fortifying network uptime and eliminating the vulnerability of a single point of failure. By decentralizing nodes, the network becomes more resilient to potential disruptions, ensuring continuous operations.
Fault Tolerance: The network is designed to sustain operations even if a significant portion, specifically 1/3rd, of nodes become unresponsive. This fault-tolerant architecture prevents widespread disruptions and maintains a functional network in the face of node failures.
Node Monitoring: A comprehensive node monitoring system is in place to assess the performance and reliability of each node within the network. Nodes are assigned scores based on their operational efficiency and reliability metrics. This continuous monitoring ensures proactive identification and rectification of potential issues, contributing to overall network health.
Penalty System: To uphold network integrity, a penalty system is implemented to address nodes exhibiting malicious behaviour or consistent underperformance. Nodes failing to meet established standards face repercussions proportional to the severity of their deviations. This penalty mechanism serves as a deterrent, fostering a trustworthy and reliable network environment.
Localized Node Access: To minimize latency and enhance user experience, the protocol implements a localized node access strategy. The system selects nodes in proximity to users' locality, ensuring reduced latency and high-speed interactions. This localized approach contributes to seamless user experiences by minimizing the time it takes for transactions and interactions.
Efficient Data Transfer: Facilitate swift transactions and interactions by employing advanced data compression techniques. The protocol incorporates data compression methods to optimize the transfer of information. This ensures that data is transmitted efficiently, reducing the time and resources required for transactions. The emphasis on efficient data transfer contributes to overall network speed and responsiveness.
Performance-Driven Node Selection: Prioritize high-performance nodes to ensure optimal speed and increase rewards for sessions. Nodes are selected based on their report card scores, reflecting their historical performance and reliability. By prioritizing nodes with high scores for sessions, the protocol maximizes the efficiency of data transfer. This not only enhances the speed of interactions but also acts as an incentive mechanism, encouraging nodes to consistently maintain high-performance standards.
CapEx Crowdsourced: The token rewards act as incentives for individuals to deploy standardized, off-the-shelf hardware. This crowdsourced capital expenditure transforms users into active contributors, fostering a decentralized and community-driven approach to infrastructure expansion.
Reduced Labor Cost: Simplifying the installation process is crucial, which is achieved by embracing plug-and-play hardware and tutorials. This user-friendly approach minimizes the need for specialized skills, significantly reducing labour costs associated with deployment and maintenance.
Limited Maintenance: Viper Network enhances infrastructure resilience through redundancy and warranty-backed hardware. The decentralized nature of the network ensures that individual nodes contribute collectively to the overall stability, lowering the maintenance burden and increasing system reliability.
No Real Estate Cost: Traditional infrastructure often incurs substantial real estate expenses. But, DePINs enable individuals to deploy hardware at properties they own, eliminating the need for costly real estate investments. This approach promotes a cost-effective and scalable network.
Blockchain Automation: Leveraging the power of blockchain, Viper automates coordination among network participants. The back-end processes are executed on-chain, offering a transparent, trustless, and permissionless environment. This automation streamlines operations and ensures the integrity of the entire system.
Open Access and Global Reach: Viper's infrastructure protocol operates on principles of open access, enabling anyone worldwide to participate or establish networks. This global reach fosters a diverse ecosystem, encouraging collaboration and innovation across geographical boundaries.\
Flexible Coverage: Individuals have the flexibility to address their specific coverage needs. By enabling contributors to tailor their hardware deployment to specific locations, the network becomes adaptable and responsive to varying geographical demands.
Pay-as-You-Go Model: The protocol adopts a pay-as-you-go model, ensuring a constant base rate and using the number of relays as a measure of cost. Users are charged based on their actual usage, providing a flexible and scalable cost structure. The constant base rate establishes a predictable cost baseline, while the variable component tied to the number of relays ensures that users pay in proportion to their specific usage requirements. This model promotes cost-effectiveness and aligns expenses with the actual usage patterns of participants.
