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CBDE BTA Certified Blockchain Developer Ethereum exam format |

CBDE exam format - BTA Certified Blockchain Developer Ethereum Updated: 2023 CBDE Brain Dumps with Real Questions
Exam Code: CBDE BTA Certified Blockchain Developer Ethereum exam format November 2023 by team

CBDE BTA Certified Blockchain Developer Ethereum

This exam is a 70 question multiple-choice exam that lasts 1.5 hours and is a performance-based evaluation of Ethereum Development skills and knowledge. Internet access is not provided during the exam, nor is any course material or study guides.

Scores and Reporting

Official scores for exams come immediately following the exam from Pearson VUE. A passing score is 70%. exam results are reported PASS/FAIL and you will be provided your percentage. Blockchain Training Alliance does not report scores on individual items, nor will it provide additional information upon request.

The Certified Blockchain Developer - Ethereum (CBDE) exam is an elite way to demonstrate your knowledge and skills in this emerging space. Additionally, you will become a member of a community of Blockchain leaders. With certification comes monthly industry updates via email and video.

The CBDE exam is a 70 question multiple-choice exam that lasts 1.5 hours and is performance-based evaluation of Ethereum Development skills and knowledge. Internet access is not provided during the exam, nor is any course material or study guides.

A person who holds this certification demonstrates their ability to:

Plan and prepare production ready applications for the Ethereum blockchain

Write, test, and deploy secure Solidity smart contracts

Understand and work with Ethereum fees

Work within the bounds and limitations of the Ethereum blockchain

Use the essential tooling and systems needed to work with the Ethereum ecosystem

This exam will prove that a student completely understands how to:

Implement web3.js

Write and compile Solidity smart contracts

Create secure smart contracts

Deploy smart contracts both the live and test Ethereum networks

Calculate Ethereum gas costs

Unit test smart contracts

Run an Ethereum node on development machines
BTA Certified Blockchain Developer Ethereum
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Other BlockChain exams

CBBF Certified Blockchain Business Foundations
CBDE BTA Certified Blockchain Developer Ethereum
CBDH BTA Certified Blockchain Developer Hyperledger
CBSA BTA Certified Blockchain Solution Architect

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BTA Certified Blockchain Developer Ethereum
Question: 91
What are Private Keys used for?
A. To Protect the Public Keys by being cryptographically significant.
B. To Sign Transactions And To Derive an Address From.
C. To Generate An Address which can sign transactions.
Answer: B
Question: 92
Public Keys vs. Private Keys. Which statement is true?
A. The Public Key is for Signing Transactions, the Private Key must be given out to verify the signature.
B. The Private Key signs transactions, the Public Key can verify the signature.
C. The Private Key is to generate a Public Key. The Public Key can sign transactions, the address is here to verify
the transactions.
Answer: B
Question: 93
A Hashing Algorithm is deterministic. What does it mean?
A. it always produces the same output given the same input.
B. it uses equally distributed data to produce the output given a long input.
C. it shouldnt be possible to re-generate the input given the output.
Answer: A
Question: 94
DApps are:
A. great, because they cut the middle man, run on a trusted platform, apply logic to the blockchain where already
economic assets are running and thus allow peer to peer trade.
B. an amazing way to create new applications. Those applications run entirely separated from other applications on
the platform and allow for logical interactions. They cant access any funds to add an additional layer of trust.
C. a new way of applying logical operations for banks and big financial institutions. This way they can reduce the staff
while operating at increased security.
Answer: B
Question: 95
To get most out of the blockchain, it is best:
A. to use it for the whole business logic. Its always best to have everything in once place.
B. to use it only for things which need the benefits of the blockchain.
Answer: B
Question: 96
Which statement is true about the EVM?
A. While the EVM is Sandboxed, it isnt as powerful as the Bitcoin Network, because its not Turing Complete.
B. The EVM cant access hardware layers or anything outside a blockchain node because its sandboxed.
C. The EVM is extremely powerful, turing complete and perfect for doing computational intensive things, because
of the direct access to the graphics card.
Answer: C
Question: 97
Which is the right order for Denominations?
A. Wei, Finney, Szabo, Ether, Tether.
B. Finney, Szabo, Mether, Gwei.
C. Gwei, Szabo, Finney, Ether.
Answer: C
Question: 98
The nonce-field in a transaction is used:
A. to protect against replay attacks.
B. to have an additional checksum for transactions.
C. to sum up all ethers sent from that address.
Answer: A
Question: 99
Solidity gets compiled:
A. to bytecode that cant be understood by humans.
B. to bytecodes which are essentially opcodes running instruction by instruction.
Answer: B
Question: 100
Having a bug-bounty program early on:
A. can help to engage the community in testing your smart contracts and therefore help to find bugs early.
B. might be a burden as it is an administrative overhead mainly.
C. is completely useless. Who wants to test beta-ware software? Its better to start with the bug-bounty program
after the contract is released on the main-net.
Answer: A
Question: 101
Consensus is reached:
A. by the miner nodes which make sure that a transaction is valid.
B. by every single node in the blockchain network executing the same transaction.
C. by a cryptographic secure signature algorithm called ECDSA which makes sure that cheating is impossible.
Answer: B
Question: 102
Smart Contracts can be written in:
A. Java, C++, Solidity and JavaScript, because the Ethereum Blockchain is completely language agnostic and cross
compilers exist for every major language.
B. Solidity, Viper, LLL and Serpent, because those are high level languages that are compiled down to bytecode.
C. Solidity and JavaScript, because those are the official first implementations for Distributed applications and the
Blockchain supports those languages fully.
Answer: B
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BlockChain Blockchain exam format - BingNews Search results BlockChain Blockchain exam format - BingNews A beginner’s guide to blockchain APIs

What are blockchain APIs, and why are they important?

Blockchain APIs, or application programming interfaces, are software interfaces that allow developers to interact with a blockchain network. Users can query and manipulate blockchain data, including transactions, smart contracts and other blockchain assets, using the functions and protocols APIs offer.

For instance, APIs can give developers access to the consensus algorithms that are utilized by blockchain networks, enabling them to test and optimize their blockchain applications by understanding how the network comes to a consensus on transactions and blocks. They can evaluate how well their applications work with various consensus techniques by simulating various network situations. This can assist developers in locating possible problems and resolving them before releasing their applications on the blockchain network itself.

Blockchain APIs are crucial because they allow programmers to build decentralized apps (DApps) that communicate with blockchain networks. By granting developers access to blockchain data and functionality, they are empowered to build applications that can execute transactions, store information, and execute smart contracts on the blockchain.

For instance, the Algorand API is a blockchain application programming interface that provides developers with access to the Algorand blockchain. It offers resources and tools to assist developers in creating and deploying DApps while enabling developers to create applications on the Algorand blockchain network.

Similarly, Coinbase API provides developers with access to the Coinbase platform, allowing them to create and manage digital wallets, query transaction data, and buy and sell cryptocurrencies.

Related: How to use Ganache for blockchain project development

How do blockchain APIs work?

Blockchain APIs work by allowing developers to interact with blockchain networks and access their data and functions through a standardized interface. Here are the steps involved in the working of blockchain APIs:

Choose a blockchain network

Developers must select the blockchain network with which they want to communicate. Bitcoin, Hyperledger and Ethereum are among the examples.

Identify the API endpoint

When choosing a blockchain network, developers must decide which API endpoint they will use to communicate with the network. An API endpoint is a URL that a developer can use to access a specific function or service offered by an API. The Ethereum network, for instance, offers a number of API endpoints, including Infura and Alchemy.

Infura offers a dependable and expandable API infrastructure for the Ethereum and IPFS networks, whereas Alchemy provides a similar service for several blockchain networks, including Polygon, Ethereum and BNB Smart Chain. Both services give developers access to a variety of features and services, such as blockchain data querying, smart contract interaction and transaction administration.

Authenticate API access

Developers must use the necessary credentials or tokens to authenticate their access to the API endpoint. As a result, the blockchain network can be accessed safely and legally.

Send API requests

Following authentication, developers can use the API endpoint to send API requests to the blockchain network. Sending transactions to the network, requesting information from the network and carrying out smart contracts are all examples of API queries.

Receive API responses

A blockchain network will reply to an API request by giving data or a confirmation of the activity taken. For instance, asking the Bitcoin network about a wallet’s balance will reveal the wallet’s balance.

The transaction and wallet data on a blockchain network is often public and can be linked back to the user, which can raise privacy concerns. To help protect user data, many blockchain networks have implemented privacy safeguards, including encryption and anonymity. 

Developers should also take precautions to certain the security and privacy of their users’ data by putting robust authentication and authorization restrictions, data encryption and other security practices into place.

Analyze and utilize API data

After receiving an API response, developers can examine and make use of the data in accordance with their requirements. For instance, the API response developers receive could include information about the current state of the smart contract, such as its balance or the values of its variables. Then, a developer creating a DApp can alter the program’s state using the API response.

How developers can use API responses to create customized experiences for DApp users

This kind of interaction with an API is necessary for building sophisticated apps that make use of external data sources or network resources. It enables programmers to create complex programs that may respond to current events and offer their customers individualized experiences.

Types of blockchain APIs

There are several types of blockchain APIs available, each designed to serve a specific purpose within the blockchain ecosystem. The common types of blockchain APIs are explained in the sub-sections below. However, depending on the blockchain network and use case, there may be other types of APIs available as well.

Node API

Access to a node on a blockchain network is made possible by a node API. Developers can submit transactions to the network and get data from the node, including transactions and blocks. To create decentralized applications and communicate with the blockchain network, node APIs are generally employed.

Smart contract API

Smart contracts are self-executing contracts that have the terms of the contract stated in lines of code. A smart contract API provides access to smart contracts on a blockchain network. It allows developers to create, deploy and execute smart contracts, as well as interact with them. Smart contract APIs are typically used to build DApps that require smart contract functionality, such as decentralized finance (DeFi) applications

Wallet API

With the help of a wallet API, developers can control Bitcoin transactions by having access to a blockchain wallet. It enables users to monitor transaction history, transmit and receive cryptocurrencies, and check wallet balances. Applications that require cryptocurrency payments, including e-commerce platforms, are frequently built using wallet APIs.

Market data API

Real-time market data for cryptocurrencies and other digital assets is accessible through a market data API. It can be used to get market parameters such as trade volumes, trade prices and other metrics. Building applications that need real-time market information, such as trading platforms, often uses market data application programming interfaces.

Identity API

A blockchain network’s identification API offers a mechanism to confirm the users’ identities. It can be applied to numerous blockchain applications to manage digital identities and verify users. Identity APIs are frequently used to create applications, like online voting systems, that demand user authentication and verification.

How are DApps created using blockchain APIs?

DApps are created using blockchain APIs by leveraging the unique properties of blockchain technology, such as decentralization, immutability and transparency, to build applications that can operate in a trustless environment without intermediaries. The steps to create DApps using blockchain APIs are explained below.

Retrieving blockchain data

Retrieving data from the blockchain is the first step in using a blockchain API. This can include information about transactions, blocks, addresses and more. Developers can submit HTTP queries with particular parameters to the endpoint of the blockchain API to get data, and they will receive responses in JSON format.

JSON stands for JavaScript Object Notation. It is a lightweight format for storing and exchanging data between different applications. It is based on a subset of the JavaScript programming language and is easy for both humans and machines to read and write.

Because JSON is a text-based format that web browsers and other applications can easily parse and interpret, it is frequently used for data transmission between a server and a web application.

Parsing and processing data

Once data is retrieved from the blockchain, it needs to be parsed and processed to be useful. Decoding transactional data, confirming digital signatures and other tasks may be involved.
Depending on the documentation for the blockchain API, developers can analyze and process the data using programming languages like JavaScript, Python or Go.

Building smart contracts

Developers can create smart contracts at this stage by utilizing blockchain application programming interfaces and programming languages like Solidity or Vyper. The blockchain API can be used to deploy the smart contract to the blockchain network after it has been created.

In order to do this, a transaction must be created that contains the smart contract’s bytecode as well as any other data necessary for the transaction. Bytecode is a low-level representation of code that can be executed by a computer’s virtual machine, often used in the context of programming languages that compile to bytecode instead of machine code.

A private key that corresponds to a public address on the blockchain network must be used to sign the transaction. The blockchain API can be used to broadcast the transaction to the network once it has been signed.

The network will examine the transaction and, if it is legitimate, will process it before deploying the smart contract to the blockchain. After being launched, the smart contract can run its code on the blockchain network and communicate with other network nodes.

Sending transactions

Transactions can also be sent to the blockchain network using blockchain APIs. This step includes sending cryptocurrency, making changes to smart contracts or carrying out other blockchain operations. The blockchain API allows developers to sign transactions with their private keys, broadcast them to the network, and get confirmation that they were successfully executed.

Creating blockchain applications

Finally, DApps that operate on the blockchain network can be built using blockchain APIs. Blockchain APIs allow programmers to establish smart contracts, retrieve, process and store data on the blockchain, as well as interface with other blockchain network nodes to develop robust and safe applications. This step involves combining the previous steps to create a functional and secure DApp.

How developers can create and deploy smart contracts using blockchain APIs

Revolutionizing blockchain development with decentralized APIs (dAPIs)

For decentralized applications, it is critical to access the range of services that web APIs offer, from providing asset price data to executing conventional financial transactions. However, intermediary-based interfacing solutions prevalent today are centralized, not secure and expensive. This is where decentralized APIs, or dAPIs, play a key role.

DAPIs use decentralized infrastructure to eliminate the issues mentioned above. By leveraging blockchain technology, dAPIs offer a secure, decentralized way for applications to access data and services without relying on a centralized server. This means that dAPIs are securer, more scalable and more cost-effective than traditional APIs.

However, dAPIs should not be confused with Chainlink as it uses a decentralized network of nodes, called Chainlink nodes, to retrieve data from external sources and feed it into smart contracts. The nodes are incentivized to provide accurate and reliable data through a system of reputation scores and financial incentives. 

On the other hand, API3 uses Airnode to build, manage and monetize dAPIs at scale. Airnode is a Web3 middleware and the Web3 oracle solution for the API economy to connect any web API directly to any blockchain application. A decentralized API is a collection of APIs that resemble real-world business services, connected to the blockchain via middleware. These APIs are consolidated into a single oracle service that can be accessed by users on the blockchain. The governance of the dAPI is decentralized, ensuring transparent oversight of the resulting service. 

Therefore, while Chainlink is a decentralized oracle service that provides smart contracts with external data, API3 focuses on building decentralized APIs that provide high-quality data feeds directly to dApps without the need for a middleman. This approach enables dApps to access and integrate real-world data in a secure and efficient manner, while also minimizing the risk of data manipulation or tampering.

How to choose the right blockchain API

Choosing the right blockchain API depends on several factors, including the project requirements, the blockchain platform being used, and the API provider’s features and pricing. A few considerations when choosing a blockchain API are listed below:

  • Blockchain platform: Choose an API that is appropriate for your chosen blockchain platform. Look for an Ethereum-specific API, for instance, if you are building on Ethereum.
  • Data retrieval: Consider the types of data that the API can retrieve and how it can be accessed. Make sure the API can return the data one requires in an accessible way.
  • Security: Search for an API that places a high priority on encryption, allows for safe access and has defenses in place against hackers and other online risks.
  • Scalability: One should confirm that the API can support their project’s size. Take into account the API’s capacity for requests, response speed and handling large amounts of data.
  • Support and documentation: Choose an API with thorough developer support and documentation. Look for tools that can assist one in resolving problems and making the most of the API, such as tutorials, code samples and developer communities.
  • Pricing: Lastly, take into account the API’s pricing plan and how it works with your project budget. While some APIs have set subscription costs or transaction fees, others have free tiers or usage-based pricing.

By considering these factors and evaluating different blockchain API providers, developers can choose the right API that fits their project requirements and budget.

Benefits of using blockchain APIs

Using blockchain APIs can provide numerous benefits to developers and businesses that are leveraging blockchain technology. For instance, blockchain application programming interfaces can make dealing with the blockchain much simpler, which makes it straightforward for developers to create blockchain-based apps. A lot of the complexity associated with blockchain technology is abstracted away through APIs, which offer a straightforward and standardized way to communicate with the blockchain.

Blockchain APIs can also give users access to a plethora of data that has been saved on the blockchain. This information can be used to develop new business models, automate procedures and enable trustless transactions. Businesses can learn a lot about their operations and customer behavior by utilizing the data provided by blockchain application programming interfaces.

In addition, blockchain APIs can assist companies and programmers in ensuring the integrity and security of their applications. Systems that are secure and impervious to tampering that can guard against fraud and other types of harmful behavior can be built using the transparency and immutability of the blockchain.

Finally, blockchain APIs can assist companies and developers in keeping abreast of the most exact trends and advancements in the blockchain sector. Businesses may access the most exact research and industry best practices by utilizing the knowledge of blockchain API providers, which will assist them to stay on top of trends and remain competitive.

Challenges of implementing blockchain APIs

Although blockchain APIs have many advantages, implementing them might be difficult. The intricacy of blockchain technology itself, which can be challenging for developers to understand and work with, is one of the major obstacles. Longer development delays and higher expenses may follow from this.

The lack of standardization among various blockchain networks and application programming interfaces is another difficulty. As a result, in order to create applications that can communicate with various blockchain networks, developers may need to become familiar with and proficient with a variety of APIs.

Also, a strong infrastructure is needed for the successful operation of blockchain application programming interfaces, including a secure database, fast internet and dependable servers. Implementing blockchain APIs may become more expensive and challenging as a result of these constraints.

The regulatory environment that surrounds blockchain technology is another difficulty. Blockchain application legality differs greatly between nations and regions, which might lead to ambiguity and impede adoption.

Finally, while using blockchain APIs, data security and privacy are major issues. Sensitive data may be disclosed or compromised since blockchain technology is transparent and decentralized. To ensure that data is transmitted and stored safely and that only authorized parties have access to it, developers must take extra security measures.

Related: How Web3 resolves fundamental problems in Web2

The future of blockchain APIs

The future of blockchain APIs looks promising as more businesses and developers recognize the benefits of blockchain technology. As the use of blockchain continues to grow and evolve, so will the demand for blockchain APIs to support these new use cases.

Integration of blockchain APIs with other cutting-edge technologies, such as the Internet of Things (IoT) and artificial intelligence (AI), represents one possible area for growth. Developers may build robust and secure apps that take advantage of the benefits of both blockchain and IoT/AI by merging both technologies.

The development of cross-chain interoperability protocols, which enable communication between various blockchains, is another area of development. This will open up new options for businesses and developers by fostering greater collaboration and innovation across various blockchain platforms. 

Band Protocol is a platform that aggregates and connects real-world data and APIs to smart contracts across different blockchain networks. Similarly, ChainAPI's integration platform enables API providers to make their APIs compatible with blockchain technology. These developments signify the beginning of an exciting and transformative era for both blockchain and API ecosystems.

One may anticipate seeing more standardization in the creation and application of blockchain protocols as the demand for blockchain APIs increases. Businesses will find it simpler to embrace blockchain technology as a result, and various blockchain platforms will become more interoperable.

Finally, one can anticipate that the development of blockchain application programming interfaces will place a greater emphasis on privacy and security. Blockchain APIs must offer strong security features to secure sensitive data and stop unwanted access as data breaches and cyberattacks increase in frequency and sophistication.

Fri, 03 Nov 2023 22:14:00 -0500 en text/html
Boosting blockchain adoption by keeping tech on the back end

Understanding the difference between the front and back end is crucial with Web3 technology. The term “front end” describes the portion of Web3 applications that consumers interact with directly. This includes the technology’s user-facing side, websites and decentralized applications (DApps). 

The back end, on the other hand, refers to the complex system that supports these Web3 applications. Everything from distributed ledgers and smart contracts to consensus protocols is included here.

However, accessibility and simplicity are important for the adoption of Web3. When the technical complexities of Web3 are too prominently featured on the front end — such as managing cryptographic keys or understanding blockchain concepts — it can alienate a significant portion of potential users. It is important to make the user experience and interactions smooth and easy to understand so that the end-user doesn’t have to worry about the technical details.

By prioritizing accessibility and simplicity, Web3 technology can be more inviting to diverse users. This approach helps bridge the gap between early adopters well-versed in blockchain technology and the broader mainstream audience.

Harrison Hines, CEO and co-founder of Fleek, a Web3 app development platform, told Cointelegraph, “Simplicity and accessibility were key to the mainstream growth of computers, smartphones, mobile apps and even very recently with AI. Concealing technical complexities on the back end follows the same logic. Developers are also end users, and they need tools/infrastructure that is easy to use and build with.”

Benefits of hiding Web3 in the back end

User experience can be improved by making blockchain-based apps easier to navigate. When users are shielded from the technical complexities associated with blockchain technology and cryptographic keys, they can engage with Web3 applications in a manner that feels similar to using traditional web applications. This streamlined experience encourages users to explore and adopt Web3 applications without being intimidated by their complexity.

Simplified onboarding for non-technical users

When the onboarding process is straightforward, individuals unfamiliar with blockchain technology can quickly get started with Web3 applications. This approach reduces the learning curve and empowers a more extensive and diverse user base to access the benefits of Web3 without needing a deep understanding of its technical aspects.

For example, Immutable Passport simplifies the onboarding process for WAGMI Defense users by offering a straightforward and password-free sign-up experience. With just a few taps, users can create an account, eliminating the need for password management. In conjunction, Passport establishes a noncustodial wallet in the background, providing a secure repository for users’ digital assets.

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Authentication options are streamlined, allowing users to choose from well-known methods such as Google, Apple or email sign-ins.

Passport’s interoperability feature also allows for seamless logins across all games and marketplaces within the Immutable ecosystem.

This approach ensures a user-friendly experience, particularly for those not familiar with Web3 technologies. According to Web3 gaming franchise WAGMI Games, this feature enables it to onboard more players.

Immutable Passport enables social login for gaming platforms like WAGMI Games. Source: WAGMI 

Kostas Kroustaloudis, development director at WAGMI Games, told Cointelegraph, “Simplifying the onboarding process for non-technical users is pivotal to driving mainstream adoption of Web3 technology. The majority of individuals have little patience for intricate, technical interfaces.”

Kroustaloudis continued, “In fact, the likelihood of someone uninstalling an app skyrockets with each additional click or tap required to reach their goal. This is especially crucial when introducing gamers to new titles. The difference between success and failure can often hinge on the reduction of just one extra click.”

Attracting more users and developers

Keeping Web3 tech in the back end can help to bridge the gap between early adopters and mainstream users, expanding the Web3 user base beyond the tech-savvy and blockchain enthusiasts. As Web3 applications become indistinguishable from their traditional counterparts in terms of user experience, they are more likely to attract users who might have hesitated to explore the technology due to its perceived complexities.

According to some experts, making it easier to build apps that hide Web3 components in the back end can attract more developers, bringing more Web3 apps to market.

Fleek’s Hines said, “The main benefit is making it easier and more accessible for more developers to build applications using Web3 technologies in their backends.”

Hines continued, “It’s just a numbers game. The more developers you have building more Web3-powered applications, the more likely (and faster) you are to start finding those breakout success apps that bring mainstream adoption. It’s the same as we saw happen in Web2 and mobile. Users discovering new Web3 apps that they enjoy is what will encourage them to try others.”

Minimizing user errors and risks

The back-end concealment of Web3 technology has the additional benefit of minimizing user errors and risks. When users are not exposed to technical complexities, there is a reduced likelihood of making critical mistakes, such as mishandling cryptographic keys or engaging in unsafe transactions.

This is especially important in decentralized finance applications, where minor errors can lead to significant financial losses.

Minimizing user errors and risks

One notable example of a back-end Web3 implementation is the Ethereum Name Service (ENS). ENS allows users to replace lengthy, cryptic Ethereum addresses with human-readable domain names.

ENS enables human-readable names for wallets. Source: ENS

This technology can be integrated into applications, providing users with a seamless experience. Users can send cryptocurrency to “john.eth” instead of “0x4cbe58a94d991087fa2dc648b1e33f55dbb53f4f2,” making transactions less prone to errors.

Coinbase employs usernames, an ENS domain form, to streamline cryptocurrency transfers and user interaction. These usernames are associated with the ENS infrastructure, simplifying complex wallet addresses by offering a human-readable alternative.

In addition to this, usernames automatically redirect web users to the respective Web3 profiles on

Regarding blockchain gaming, WAGMI Games is another example. Its WAGMI Defence mobile app uses a free-to-play business model and features a familiar user experience. Players start by obtaining a free basic card set. Suppose a player wishes to participate in more challenging games with the chance of higher ranks and potential awards. In that case, they can purchase NFT characters with real money, similar to traditional apps.

While the blockchain serves as the foundation for the game’s technology, players interact with the game via a more traditional interface. This design can lessen the perceived complexity and difficulty of using blockchain and NFT features, making them more accessible to a wider audience.

Actionable advice

For builders looking to create more user-friendly and seamless Web3 apps, one key consideration is the implementation of gas optimization strategies. Gas fees are an inherent part of many blockchain transactions and can be a significant barrier for users.

Builders can Boost the gas fee problem by using layer-2 solutions like state channels, diverting transactions off the main chain, reducing congestion and enhancing user experience, especially for gaming DApps.

Additionally, they can choose low-fee blockchains like BNB Smart Chain, Solana or Polkadot to create budget-friendly environments, especially for microtransactions.

Kroustaloudis agreed, telling Cointelegraph, “Gas fees, particularly in the context of apps reliant on microtransactions, can be a significant hurdle. Even a $0.10 gas fee, when incurred frequently, can prove problematic. With the emergence of various new L2 chains like Coinbase’s BASE and Immutable’s L2 solution, gas fees cease to be a concern.”

“Depending on the app’s nature, choosing to build on layer 2s becomes an obvious choice for achieving mass adoption. To embark on this journey, developers should thoroughly research their target users’ needs and determine the most suitable gas optimization strategy for their project.”

Zero-knowledge (ZK) technology, specifically ZK-rollups, can reduce the load on the main chain by batching off-chain transactions into a single smart contract, offering faster confirmation times and lower fees. Builders can integrate ZK-rollups to make their applications more efficient and cost-effective while enhancing the user experience.

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Builders should also consider optimizing for mobile devices. Many users access Web3 apps on their smartphones, so ensuring an app is mobile-responsive and functions seamlessly on various screen sizes and devices is crucial for widespread adoption.

For users planning to use Web3 apps, it’s essential to maintain awareness and knowledge about the technology. Web3 and blockchain are evolving rapidly, and staying informed about the latest developments, security best practices and user guidelines can help users make informed decisions to protect their digital assets.