Step-by-Step Guide: How to Build a dApp on Ethereum with Ease 

A technology that started with a digital currency called Bitcoin has now opened the door to building fully functional apps. Many people confuse Ethereum with Bitcoin; however, they’re not the same.

If you’re intrigued by the idea of creating a decentralized app (dApp) on the Ethereum blockchain platform, then this guide is a treasure trove of knowledge for you. It’s your key to unlocking the world of dApp development. Let’s get started.

Is Ethereum Just Another Bitcoin?

Ethereum is not a digital currency like Bitcoin. However, it is a software platform built on blockchain that allows developers to build decentralized apps (dApps).

Ethereum was ideated by Russian-Canadian programmer and cryptocurrency researcher Vitalic Bitterin in 2013. Later, in 2015, it went live. The simplest explanation of Ethereum in two words is ‘Software platform.’

So, how does Ethereum differ from Bitcoin?

“Bitcoin and Ethereum are both use cases of blockchain technology with different purposes.”

– CryptoCasey’s podcast

Bitcoin is simply a digital currency that people can use as a form of payment to send to and from each other or hold as a store of value. On the other hand, Ethereum is a programmable blockchain that people can use to build software to create valuable products and services due to the decentralization properties of blockchain technology.

The software that people can build on Ethereum is called decentralized applications or dApps.

What Exactly is a dApp?

A decentralized app or dApp is an app whose data is stored on a distributed network of computers. It is a Web3 app that can be developed on a platform that is built on blockchain. A dApp enjoys three main benefits of being developed on a blockchain network. These are:

  • Decentralization

 The blockchain network is decentralized. Firstly, it means that the data is stored on a group of computers (nodes) rather than on a central server. Secondly, the network is not owned by any third-party intermediary, not even the government.

  • Transparency

Another important asset of blockchain is transparency. This means that the transactions recorded on the ledger are available for everyone to see and are stored on a network of computers around the world, thus making data impossible to alter or modify.

  • Immutability

Immutability simply means that the data recorded and stored on the blockchain cannot be changed, altered or forged. This un-modification of records is achieved through cryptography and blockchain hashing processes.

In simple words, when a Web3 developer builds a dApp on a blockchain network like Ethereum, he knows that no one can control the data or network or destroy it.

Also Read: The Beginner’s Handbook to Decentralized Apps (dApps)

Things to Know Before Building a dApp on Ethereum

There are two main things to know before beginning to build a dApp on Ethereum. Follow along!

  1. Know About Gas Fee

As discussed before, blockchain is decentralized, meaning it is software distributed across a vast network of computers around the world to incentivize people to host and maintain data on the blockchain. Ether was created as a form of payment to fuel the Ethereum network. 

So, anyone who wants to build a software application, i.e., dApp on an Ethereum network has to pay for the computing power and space required for using Ether. The amount of Ether required for network fees is determined by a built-in pricing system known as Gas.

Note: You only need to pay the gas fee for dApp deployment.

  1. Proficient in JavaScript and/or Solidity

If you’re entirely new to blockchain and dApp development, you cannot directly jump on learning about blockchain programming languages. You must first have the time and patience to learn a basic programming language such as JavaScript or Python. You must also be aware of front-end development as well. It is only then that you can plunge your hands into blockchain programming languages such as Solidity or Go to build smart contracts from dApp.

How to Create a dApp on Ethereum Step-by-Step?

Now that you’re aware of what you need to create a dApp on Ethereum let’s address our primary focus: how to build a dApp on Ethereum. There are numerous steps involved in building a dApp, such as setting up the development environment to deploy the smart contract and then creating a frontend so that the users can interact with the app.

Follow the given roadmap to build dApp on Ethereum:

Create a dApp on Ethereum Step-by-Step_

1. Prepare Your Development Environment

You need to install the following tools and runtime environment:

  • Install Node.js runtime environment and npm package to run JavaScript applications and manage packages. You can download Node.js from here.
  • The next step is to download Truffle, a popular development framework for Ethereum. You can install Truffle with the following bash script on Node.js:

npm install -g truffle

  • Then, download Ganache, an Ethereum development tool that allows you to simulate the blockchain environment locally and deploy smart contracts.
  • It is important to download a software cryptocurrency wallet to interact with Ethereum. To do this, download MetaMask, a browser extension for managing Ethereum accounts and interacting with the blockchain.

2. Code a Truffle Project

After installing all the required tools, create a new Truffle project and set up your directory infrastructure. The goal of Truffle is to deploy dApps and smart contracts to Ethereum. It offers you all the tools and libraries to simplify development, building the contract, testing, deploying and managing it.

3. Write Smart Contract

You can write the smart contract in Solidity, which is one of the most widely used blockchain programming languages for Ethereum. Compile and migrate the smart contract using Truffle. A good tip is to connect your GitHub repository to Truffle Teams.

4. Test Smart Contract

You can write the tests in Mocha and Chai to test the functioning of your smart contract.

5. Build a Frontend to Interact with Smart Contracts

To interact with the smart contract, you need a front-end framework such as React.js. This allows you to integrate Web3.js with the Ethereum blockchain.

6. Finally, Deploy the dApp

Once you’re satisfied with the created version of your dApp, it’s time to deploy your smart contract to Ethereum. You can promote it to production by deploying it to Mainnet or any testnet. After that, connect your frontend with the deployed contract.

Build a dApp on Ethereum with an Example

It’s good to have practical knowledge, but what’s fun when you don’t know how to code the dApp in real life? To make it easy, we’ve taken an example of a peer-to-peer lending dApp that you can build by following these steps. Consider this practice as a warmup exercise so that you can get started with creating your own dApp on Ethereum.

Here are the practical steps to build a dApp on Ethereum:

  1. Set Up Development Environment

The steps are already mentioned above.

  1. Creating a Truffle Project
  • Use the following bash script to initialize the Truffle project:

mkdir LendingDApp

cd LendingDApp

truffle init

  • Use the following Arduino code to prepare the directory structure:

LendingDApp/

├── contracts/

│   ├── Migrations.sol

│   └── Lending.sol

├── migrations/

│   ├── 1_initial_migration.js

│   └── 2_deploy_contracts.js

├── test/

├── truffle-config.js

  1. Write the Smart Contract
  • Create ‘Lending.sol’ in ‘contracts’ folder by writing the following Solidity code:

pragma solidity ^0.8.0;

contract Lending {

    struct Loan {

        uint256 amount;

        address payable borrower;

        address payable lender;

        uint256 interest;

        bool repaid;

    }

    Loan[] public loans;

    mapping(address => uint256[]) public borrowerLoans;

    mapping(address => uint256[]) public lenderLoans;

    event LoanRequested(uint256 loanId, address borrower, uint256 amount, uint256 interest);

    event LoanFunded(uint256 loanId, address lender);

    event LoanRepaid(uint256 loanId);

    function requestLoan(uint256 amount, uint256 interest) external {

        loans.push(Loan({

            amount: amount,

            borrower: payable(msg.sender),

            lender: payable(address(0)),

            interest: interest,

            repaid: false

        }));

        uint256 loanId = loans.length – 1;

        borrowerLoans[msg.sender].push(loanId);

        emit LoanRequested(loanId, msg.sender, amount, interest);

    }

    function fundLoan(uint256 loanId) external payable {

        Loan storage loan = loans[loanId];

        require(loan.lender == address(0), “Loan already funded”);

        require(msg.value == loan.amount, “Incorrect amount”);

        loan.lender = payable(msg.sender);

        lenderLoans[msg.sender].push(loanId);

        loan.borrower.transfer(loan.amount);

        emit LoanFunded(loanId, msg.sender);

    }

    function repayLoan(uint256 loanId) external payable {

        Loan storage loan = loans[loanId];

        require(msg.sender == loan.borrower, “Only borrower can repay”);

        require(!loan.repaid, “Loan already repaid”);

        uint256 repaymentAmount = loan.amount + loan.interest;

        require(msg.value == repaymentAmount, “Incorrect repayment amount”);

        loan.repaid = true;

        loan.lender.transfer(repaymentAmount);

        emit LoanRepaid(loanId);

    }

    function getLoanDetails(uint256 loanId) external view returns (uint256, address, address, uint256, bool) {

        Loan storage loan = loans[loanId];

        return (loan.amount, loan.borrower, loan.lender, loan.interest, loan.repaid);

    }

}

  • Compile the smart contract through the following bash script:

truffle compile

  • Create ‘2_deploy_contracts.js’ in ‘migrations’ folder using the following JavaScript code:

const Lending = artifacts.require(“Lending”);

module.exports = function (deployer) {

    deployer.deploy(Lending);

};

  1. Migrate the Smart Contract

You the following bash script to migrate the smart contract:

truffle migrate

  1. Test the Smart Contract
  • Create ‘Lending.test.js’ in ‘test’ folder by writing the JavaScript code:

const Lending = artifacts.require(“Lending”);

contract(“Lending”, accounts => {

    it(“should allow a user to request a loan”, async () => {

        const instance = await Lending.deployed();

        await instance.requestLoan(100, 10, { from: accounts[0] });

        const loan = await instance.loans.call(0);

        assert.equal(loan.amount, 100, “Loan amount should be 100”);

        assert.equal(loan.interest, 10, “Loan interest should be 10”);

        assert.equal(loan.borrower, accounts[0], “Borrower should be the account requesting the loan”);

        assert.equal(loan.lender, 0x0, “Lender should be empty initially”);

    });

    it(“should allow a user to fund a loan”, async () => {

        const instance = await Lending.deployed();

        await instance.fundLoan(0, { from: accounts[1], value: 100 });

        const loan = await instance.loans.call(0);

        assert.equal(loan.lender, accounts[1], “Lender should be the account funding the loan”);

    });

    it(“should allow a borrower to repay a loan”, async () => {

        const instance = await Lending.deployed();

        await instance.repayLoan(0, { from: accounts[0], value: 110 });

        const loan = await instance.loans.call(0);

        assert.equal(loan.repaid, true, “Loan should be marked as repaid”);

    });

});

  • Run the test by using the bash script:

truffle test

  1. Build the Frontend to Interact with Smart Contracts
  • Set up the React app by using the following bash script:

npx create-react-app lending-dapp

cd lending-dapp

  • You then need to install Web3.js through the following bash script:

npm install web3

  • Create App.js components by using the following JavaScript code:

import React, { useState, useEffect } from ‘react’;

import Web3 from ‘web3’;

import Lending from ‘./contracts/Lending.json’;

const App = () => {

    const [web3, setWeb3] = useState(null);

    const [account, setAccount] = useState(null);

    const [contract, setContract] = useState(null);

    const [loans, setLoans] = useState([]);

    const [loanAmount, setLoanAmount] = useState(“”);

    const [loanInterest, setLoanInterest] = useState(“”);

    useEffect(() => {

        const init = async () => {

            const web3 = new Web3(Web3.givenProvider || ‘http://localhost:7545’);

            const accounts = await web3.eth.requestAccounts();

            const networkId = await web3.eth.net.getId();

            const deployedNetwork = Lending.networks[networkId];

            const instance = new web3.eth.Contract(

                Lending.abi,

                deployedNetwork && deployedNetwork.address,

            );

            const loanCount = await instance.methods.loansCount().call();

            const loanDetails = [];

            for (let i = 0; i < loanCount; i++) {

                const loan = await instance.methods.getLoanDetails(i).call();

                loanDetails.push(loan);

            }

            setWeb3(web3);

            setAccount(accounts[0]);

            setContract(instance);

            setLoans(loanDetails);

        };

        init();

    }, []);

    const requestLoan = async () => {

        await contract.methods.requestLoan(loanAmount, loanInterest).send({ from: account });

        setLoanAmount(“”);

        setLoanInterest(“”);

    };

    const fundLoan = async (loanId, amount) => {

        await contract.methods.fundLoan(loanId).send({ from: account, value: amount });

    };

    const repayLoan = async (loanId, amount) => {

        await contract.methods.repayLoan(loanId).send({ from: account, value: amount });

    };

    if (!web3 || !contract) {

        return <div>Loading Web3, accounts, and contract…</div>;

    }

    return (

        <div className=”App”>

            <h1>P2P Lending DApp</h1>

            <h2>Request a Loan</h2>

            <input

                type=”number”

                value={loanAmount}

                onChange={e => setLoanAmount(e.target.value)}

                placeholder=”Loan Amount”

            />

            <input

                type=”number”

                value={loanInterest}

                onChange={e => setLoanInterest(e.target.value)}

                placeholder=”Loan Interest”

            />

            <button onClick={requestLoan}>Request Loan</button>

            <h2>Loans</h2>

            <ul>

                {loans.map((loan, index) => (

                    <li key={index}>

                        Amount: {loan[0]} – Interest: {loan[3]} – Borrower: {loan[1]} – Lender: {loan[2]} – Repaid: {loan[4].toString()}

                        {!loan[4] && (

                            <>

                                <button onClick={() => fundLoan(index, loan[0])}>Fund Loan</button>

                                <button onClick={() => repayLoan(index, parseInt(loan[0]) + parseInt(loan[3]))}>Repay Loan</button>

                            </>

                        )}

                    </li>

                ))}

            </ul>

        </div>

    );

};

export default App;

  • Connect with smart contract:

Make sure that your frontend is connected to the right network where your smart contract is deployed.

  1. Deploy the dApp

After testing the dApp, the final step is to deploy the smart contract to Ethereum Testnet or Mainnet. Leverage the following steps to do so:

  • Update ‘truffle-config.js’ with the suitable network configuration (e.g., Rinkeby, Mainnet). You can deploy using Truffle through the following bash code:

truffle migrate –network <network-name>

  1. Deploy the Frontend

You can then use a hosting service such as GitHub Pages, Netlify or Vercel to host your React app.

Conclusion

That’s a wrap! If you’re a mere beginner or intermediate and want to refer to a guide on how to build a dApp on Ethereum, this blog is the perfect guide to get started. You can follow the complete roadmap to create your dApp. All you need to do is set up a development environment for creating a smart contract and then test and deploy the dApp. 

If you’re an enterprise or business organization looking to build dApps, Deftsoft has a dedicated team of seasoned dApp developers who can build a professional dApp for your business venture. We’re here to help.

FAQs:

1. What is the first step in building a dApp on Ethereum?

The first step in building a dApp on Ethereum is to prepare your development environment. This includes installing Node.js, npm, Truffle, Ganache, and MetaMask. These tools are essential for running JavaScript applications, managing packages, simulating the blockchain environment locally, and managing Ethereum accounts.

2. Do I need to know any specific programming languages to create a dApp on Ethereum?

Yes, to create a dApp on Ethereum, you should be proficient in JavaScript and have a good understanding of front-end development. Additionally, you will need to learn Solidity, the programming language used for writing smart contracts on Ethereum.

3. What is the role of Gas fees in building a dApp on Ethereum?

Gas fees are required for deploying and running transactions on the Ethereum network. When you build a dApp on Ethereum, you need to pay these fees in Ether (ETH) to compensate for the computing power and storage space utilized on the network.

4. How do I test my smart contract during the dApp development process?

You can test your smart contract by writing tests using Mocha and Chai frameworks. These tests help ensure that your smart contract functions correctly before deploying it to the Ethereum network. Truffle provides built-in support for these testing frameworks.

5. What are the main benefits of developing a dApp on the Ethereum blockchain?

The main benefits of developing a dApp on the Ethereum blockchain include decentralization, transparency, and immutability. Decentralization ensures that the data is stored on multiple nodes rather than a central server. Transparency allows anyone to view the transactions recorded on the blockchain. Immutability means that once data is recorded on the blockchain, it cannot be altered or deleted.

The Beginner’s Handbook to Decentralized Apps (dApps)

dApps, an acronym for decentralized apps, has become the talk of the town. With the worldwide blockchain obsession across the globe, tech geeks are paving ways to disrupt the decentralized market. No surprise, the emerging technology has now taken over the app market as well.

 Google Trends report,on decentralized apps

According to the Google Trends report, interest in decentralized apps has also shown an upward trend over the last year. We have more stats for you! According to Crypto Potato, decentralized apps witnessed a whopping 77% rise in activity in the first quarter of 2024 and a 7 million daily active wallet user count.

What are decentralized apps or dApps? How does a dApp work? What are the features and types of dApps? What industries are using dApps? Are there any challenges faced in adopting dApps? What is the future of dApps?

If you’re looking for an answer to all these questions, you’re at the right place. We consolidated all the useful information with comprehensive research via our blockchain developers.

Let’s start with the basics.

What is a Decentralized App?

A decentralized app is a Web 3.0 app built on top of blockchain technology. Let’s expand the term ‘decentralized’ to get a better understanding of what a decentralized app is. Decentralized means that there is no central server where the data is stored; however, it uses a distributed ledger technology where the information is stored on a number of nodes. 

Similarly, dApps are decentralized apps as there are no third-party intermediaries. Let me explain it with an example! If you wanted to sell your digital book on a centralized network, you could use PayPal as a payment gateway and create a checkout store that gives the user a book after checking out. Here, PayPal acts as a third-party intermediary.
However, in the case of a dApp, you can directly sell your digital book to the interested buyer without the need for a third-party beneficiary. You can code a smart contract that will be implemented once a user clicks on the payment option.

What is a Decentralized App

How Does a dApp Work?

As discussed above, a decentralized app or dApp works on top of blockchain technology. The backend of the app works on a peer-to-peer decentralized network. A dApp also has a frontend and user interface similar to that of a traditional Web 2.0 app. You can also host the frontend on any decentralized server such as IPFS.

The dApps are usually written in robust programming languages such as JavaScript, C++, Ruby, Go, Python, Solidity, etc.

Although dApps function quite similarly to the traditional apps that exist on Apple Store and Google Play Store, there are some highlighting features of a dApp that are worth noting.

What are the Features of a Decentralized App?

Features of dApps

The following features of the dApp are noteworthy:

  • Decentralized: dApps are decentralized in nature, meaning that they do not function on a central server but rather on a distributed network of computers or nodes. For example, a decentralized application runs on Ethereum, a public, open platform.
  • Consistency: dApps operate the same way no matter what environment they’re running in, unlike centralized applications that run differently on various operating systems such as Windows, MacOS, Ubuntu, and Linux.
  • Dedicated Virtual Environment: All the decentralized applications run inside an isolated virtual environment called the EVM or Ethereum Virtual Machine. It is a virtual environment created to keep smart contract errors or buys at bay. This functionality helps in the seamless functioning of the blockchain network.
  • Open Source: There is no single server or entity that controls the functioning of dApps. These apps are open-source and the code is available for public inspection.
  • Agile: dApps have all the agility to function in various environments irrespective of the function that needs to be performed. When provided with the necessary resources, dApps can carry out any task. 
  • Incentivized: A dApp works on the model of incentivization to the users. It can generate exchangeable and tradable tokens as proof of value. These tokens act as rewards on the blockchain network.
  • Protocol Compliant: Since dApps work on various blockchain platforms such as Bitcoin and Ethereum, they function by following significant cryptographic algorithms to show proof of value. For instance, both Ethereum and Bitcoin function on Proof of Work consensus mechanism protocols. 

What are the Types of dApps?

Decentralized apps or dApps can be classified into various types based on consensus mechanism and functionality. 

Let’s first classify them on the basis of the consensus mechanism:

types of dApps on the basis of consensus mechanism
  • Type I dApps

The type I dApps are the foundational dApps that form the framework for other dApps to be build upon. They have their own blockchains. For example, digital currencies such as Ethereum and Bitcoin, and smart contracts.

  • Type II dApps

The type II dApps are the decentralized apps that function on top of type I dApps since they do not have a blockchain of their own.  They function on the basis of protocols and can have their own protocols. For example, the Omni protocol works on the Bitcoin blockchain.

  • Type III dApps

The type III dApps refer to the dApps with which a user interacts directly and performs actions on it. In other words, the type III dApps are built on top of type II dApps. These dApps have a decentralized marketplace or a digital wallet built on them. For example, an NFT marketplace to trade art or any other digital collectibles.

Now, let’s classify dApps on the basis of functionality:

types of dApps on the basis of functionality
  • Financial dApps or DeFi Apps

Financial dApp is a type of decentralized app that brings peer-to-peer (P2P) payment systems into the limelight. These apps eliminate the need for third-party intermediaries to enable and even create payment gateways. For example, Aave is a decentralized (DeFi) investment platform that allows lending and borrowing of cryptocurrency at both fixed and variable interest rates.

  • Governance dApps

dApps also have significant applications in the government sector, thanks to their unwavering transparency and credibility. These decentralized apps are being used in voting systems and Decentralized Autonomous Organizations (DAOs) that help make decisions on the basis of consensus protocols without the need for a central authority. 

  • Gaming dApps

Decentralized apps have opened the door to another dimension of possibilities by turning virtual characters and artifacts into unique and verifiable assets. You can sell, buy or trade these assets on various marketplaces or even make an NFT out of them. For example, CryptoKitties is a decentralized gaming app that works on EVM where users can sell, buy and trade virtual cats or kittens.

  • Social Media dApps

You can also enjoy decentralized social media networks through dApps. For example, Lenstube is a decentralized social media app where users can share videos, mint their username and create their own Web 3.0 identity. The app is powered by Lens Protocol.

What are the Various Industries Utilizing dApps?

Many industries across the globe have recognized the power of dApps. From real estate to logistics, the blockchain technology has left no stone unturned. Let’s explore the applications of decentralized apps across various industries:

  • Supply Chain Management

dApps implementation in supply chain management has transformed the way in which goods are tracked. The intervention of dApps has allowed direct communication with the business partners, thus leading to improved business operations, enhanced transparency and traceability. 

For example, VeChain is a blockchain-powered platform that improves business operations by enhancing the tracking of goods, products and processes. Another excellent example is the IBM Food Trust uses a private blockchain to provide actionable food supply chain data with immediate access to authorized users, right from the farm store to the end consumer.

  • Healthcare

The utility of dApps in healthcare is quite evident. It significantly helps in securing and managing patient data in a decentralized manner without sharing data with third parties. It also helps to enable interoperability between healthcare providers. 

For example, MedRec is a decentralized record-tracking platform that gives full access to patients over medical record distribution. Patientory is another blockchain-powered software solution that provides control of patient data and incentivizes them through tokens.

  • Real Estate

Blockchain technology has also spread its wings in the real estate industry. It has simplified property transactions and mitigated fraudulent activities since there is no involved beneficiary.

For example, Propy is a real estate transaction platform that uses blockchain for transparent transactions and allows to navigate real estate deals completely online. RealIT offers tokenized assets for investing in real estate as a blockchain-secure passive income source.

  • Entertainment

dApps are also infiltrating the entertainment segment and helping to create more personal relationships between the artist and his cult following. The blockchain technology has also helped in fair revenue distribution amongst the people working in the background in the entertainment industry and introduced direct artist-to-fan interaction.
For example, Audius is a decentralized music streaming platform where users can create immutable and timestamped records through which they can earn bonuses and can be incentivized. Another example is Theta which is a blockchain-powered network for video streaming.

What are the Challenges of dApp Development?

Now that we have talked about the bright side of dApp development, let’s talk about the major challenges that the world is facing in building dApps. The following are the concerning downsides of dApp development:

  • Scalability Issues

Blockchain technology does not offer scalability features like cloud computing. It often lags behind in working up to its full potential in times of network congestion. It often faces low transaction speed when there is a high traffic influx. Not to mention the excessive gas fees that is charged on every payment on the blockchain network. For example, Ethereum has a high gas fee.

  • Security Concerns

Although blockchain is a decentralized and credible technology, it is still not away from the hands of malicious attackers and hackers. Talking about smart contracts, they’re not yet safe to use since they’re prone to many vulnerabilities. You must remember that blockchain itself is a public ledger that offers some kind of transparency.

  • Difficult User Adoption

Unlike Web 2.0, which is easily accessible to users via search engines, blockchain is relatively less accessible. In fact, people are not familiar with the use cases of blockchain. The UI/UX of the dApps is also non-user-intuitive and difficult to adopt.

What is the Future of dApps?

Although there are still plenty of bottlenecks related to the worldwide dApp adoption, the future of blockchain technology looks quite promising. We can expect various emerging trends in the world of blockchain such as Layer 2 solutions, cross-chain interoperability and some notable advancements in blockchain technology. Since traditional cryptocurrencies such as Ethereum and Bitcoin are highly volatile, we can expect the adoption of stablecoins by merchants and enterprises.

Another potential impact of blockchain technology that we can expect in the near future is the enhanced decentralization of the Internet. We can also expect the adoption of a more equitable digital economy. 

Furthermore, the blockchain segment will be regulated in a streamlined manner to leverage the technology. For example, Dubai has already started utilizing blockchain resources to make it a smart city.

Conclusion

dApps are revolutionizing the way the world works. With an enhanced focus on data transparency and traceability, blockchain technology is becoming popular day by day. From supply chain management to the healthcare industry, every segment is exploring the scope of dApps and their decentralized nature. 

Whether you’re a blockchain-powered startup, business organization or enterprise looking to expand the horizons of your dApp app development project, Deftsoft is here to help. With a team of seasoned dApp developers, testers and UI/UX designers, we stand strong as a dApp development company. Established for more than 18 years, our distinguished dApp development services can help you stand out from the crowd and gain a competitive edge.

You can check out our other blogs to gain deeper insights into blockchain technology and beyond.

FAQs:

1. What is meant by a dApp?

A dApp is a decentralized app, meaning that it works by leveraging blockchain technology to build app solutions that do not require any third-party intermediary. It usually works by implementing smart contracts with its frontend and backend, working on consensus mechanisms such as Proof of Work (PoW) or Proof of Stake (PoS) to validate and verify transactions.

2. What are the main features of a decentralized app?

The main features of a decentralized app include that it is open-source, consistent, works on Ethereum Virtual Machine Machine (EVM), agile in nature and works on consensus mechanisms such as Proof-of-Work (PoW) and Proof-of-Stake (PoS). Another important feature of a dApp is that it uses smart contracts for implementing payments and transactions.

3. What are the types of dApps?

There are different types of dApps based on the consensus mechanism such as type I, type II and type III dApps. Other types of dApps include financial, governance, gaming, and social media apps.

4. What are the various industries where dApps are utilized?

The various industries where dApps are utilized include supply chain management, healthcare, entertainment and real estate. For example, it is used for sharing end-to-end data for tracking goods from manufacturers to merchants in supply chain management.

5. Give an example of a dApp.

Audius is a decentralized music streaming platform where users can create immutable and timestamped records through which they can earn bonuses and can be incentivized. This app is great for selling timestamped records as a unique asset in the entertainment segment. A lot of people compare this dApp to Spotify and even find it better than the latter.