WAB Targets Exponential Speed With Dynamically Sharded Multigraph Blockchain

The WAB blockchain is designed to run innovatively by incorporating the strengths of existing blockchains and native methodologies for exponential transaction processing. WAB avoids the exposure of the first to fourth generation blockchains to hacking by adopting primitive cryptography. In addition, transaction hash will correlate to Lamport signatures in order to maintain the integrity of transactions.

One vital highlight of WAB is the application of sharding for network access and transactional processes. How sharding is merged with multi-graph functionality is an innovation we will explore in this article in a more in-depth fashion.

Multigraph Theory

The use of graphs is a mathematical concept and it has application across several facets of human frontiers. In the simple mathematical analogy, a multigraph is designed with multiple edges, which otherwise can be identified with similar end nodes. In essence, where there are two or more verticals, the edges will be linked with multiple edges.

In the sense of a blockchain, the operational framework will be such that allows for parallel nodes that are interlinked with concentric meeting points. Nodes are recognized for the access they have to the blockchain. In operational terms, a full node is able to download a full copy of the WAB Blockchain and, check for new transactions that lines up to defined consensus protocols.

Based on WAB validation processes, hashed transactions that are fully voted are updated across the network. The validated transactions are what make up the blocks on the platform in a seamless determinate manner.

Dynamic Sharding

In basic terms, unlike a database, WAB will not be a pair of machines, but a decentralized ledger system that guarantees that a tasked node can be supported by other nodes at any point in time. A multigraph algorithm makes the difference in WAB, as a sharded ecosystem allows for an interlinking of nodes; such that a node’s task is broken up among different nodes.

Dynamic sharding as deployed in WAB introduces a service that arbitrates a target node in such a way that the details of each node are known and distinct. In such a description, if the objects in such a node are isolated for any reason, it can be locked till its integrity is verified. In a seamless manner, the network continues to work as described without any disruption of users’ access

Since there is no disruption of service, the challenge besetting a node is not evident on the front-end. The back-end description uses a locator to redirect the usual functionality of that node so that the blockchain’s functions are uninhibited.

Task Sharing in WAB

Dynamic sharding ensures that data is split between authorized nodes in a logical manner that preserves the character of each transaction.

To understand how sharding works, it is advisable to take a look at Internet pages. In a fully liked Internet environment, a database service can encounter some problems. If this happens, the desired objects will become inaccessible. In effect, the hosting website will go offline.

This necessitates that in a database environment, the load balancer will temporarily effect a redirection of the URLs that lead to the database. The destination of the redirection will likely be a page that provides information on the outage, and gives an estimation of time required for the restoration of full service.

Where the scenario above occurs in a shared platform only the affected segment will be off-line. In the WAB environment, as a result of the need to maintain a consistent communication threshold, an application code will be built-in so that the users affected can be known, and that interface is redirected to unaffected nodes.

WAB Merges Multigraph Processes With Dynamic Sharding

WAB prioritizes user accounts, processes and nodes in such a way that when a transaction is identified for sharding, the sending account becomes the basis for this routine. So, if there is a fraudulent attempt to replay a transaction, the same sending node is used, and a replication is avoided by the shards of the exact node.

In effecting transaction sharding, the WAB protocol makes use of two approaches:

Cross-shard communication is avoided by putting atomic transactions into the loop for cost-savings

The consensus loop for transactions as programmed for asynchronous usage is a ‘reject-and-retry process’ that ends when a majority of nodes get updated.

Third-party Functionality

The effect of a dynamically shared multigraph functionality on third-party usage also needs a mention here. The native smart contracts for WAB make a provision for apps to be hosted on the blockchain.

The drawback in existing blockchains is the untoward limitation on apps, which prevents computational processes. The common refrain is that the cost of computational tasks is rather too high to be borne. This is not debatable as the transaction algorithm used in the previous generation of blockchains is intensive in terms of data generation, and energy requirements.

The WAB approach is to use an innovative smart language that drives optimal scaling so that transactions can be faster for a variety of apps hosted on the platform. Bearing in mind that dynamic sharding is embedded in WAB, transactions are easily broken up and shared between nodes for ease of execution without losing its basic completeness.

Irrespective of the nature of apps, the WAB smart contract will be amenable in such a way that computational resources will also be sharded by using the computational sharding approach. This process overlays the consensus process efficiently. The size of every consensus group will inscribed for all participants and the built-in functionality as a subtask comes through for execution.

The participants at each time will inscribe the agreed condition for the sharding process and consensus on every subtask processed. This ensures the integrity and validity of the sharding process and outcomes.

WAB is a fifth generation blockchain that incorporates Dynamical Sharding Multigraph functions for transaction scaling. This is the approach that results in the upscale of transaction processing per second from a mere 100 to 100 million. WAB is a testament to the real-world use of blockchains for commercial and organization-wide purposes.

WAB Network — The Facelift of Blockchain

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