Master DApp Development with Ethereum! This advanced course is designed for expert developers looking to deepen their knowledge in blockchain technology. You'll gain hands-on experience in building decentralized applications (DApps) using Ethereum and Solidity, preparing you for high-demand roles in the blockchain sector.

DApp Mastery Course - Build with Ethereum

# Transform Your Career with Expert DApp Development!

Embark on a transformative journey into the world of blockchain development. This advanced course is meticulously crafted for expert developers eager to master the art of decentralized application (DApp) development on the Ethereum network. Dive deep into the intricacies of smart contracts and Solidity, while gaining hands-on experience that will set you apart in the rapidly evolving blockchain landscape. By the end of this course, you'll not only develop a fully functional DApp but also position yourself as a leader in the blockchain sector, ready to tackle real-world challenges and innovate within the Ethereum ecosystem.


### Who is it for?

This course is designed specifically for expert developers who are not just looking to enhance their skill set, but to dominate the blockchain space. If you find yourself grappling with complex blockchain architectures, navigating the ever-evolving Ethereum ecosystem, or seeking to ensure the security of your smart contracts, this course is your game-changer.

- Experienced developers with a strong background in programming and software development
- Blockchain technology companies
- Members of the Ethereum community

**Recommended skill level: Expert**


### Prerequisites

This course is not just a challenge; it's your launchpad into the blockchain universe! To thrive, you'll need a solid foundation:

- 🛠️ Strong Programming Skills in JavaScript or Python
- 🔍 Basic Understanding of Blockchain Concepts
- 🌐 Familiarity with Web Development Frameworks
- 🔧 Experience with Version Control Systems like Git
- 🔒 Knowledge of Cryptographic Principles

### What's inside

Get ready to dive deep into the world of DApp development! This course is packed with modules designed to provide you with the skills and knowledge needed to excel in blockchain technology.

- Unlocking Blockchain Architecture
- Smart Contracts: The Backbone of DApps
- Frameworks for DApp Development
- Mastering Deployment Strategies
- Integrating with Existing Systems
- Final Project Presentation

**Interactive Quizzes**

Each module includes quizzes to reinforce your learning and ensure you grasp the key concepts of blockchain and DApp development.

**Homework**

Assignments will challenge you to apply your knowledge practically, including deploying smart contracts and creating user-centric DApps.

**Practical Project**

Your hands-on project will involve developing a fully functional DApp, showcasing your skills in real-world scenarios.

**Before You Start**

Before you start, familiarize yourself with the prerequisites to ensure a smooth learning experience.

**Books to Read**

Recommended readings will deepen your understanding of blockchain technology and DApp development best practices.

**Glossary**

A comprehensive glossary will help you navigate the technical terms used throughout the course.


### What will you learn

By the end of this course, you will have mastered the skills necessary to thrive in the blockchain industry.

- Develop a fully functional decentralized application (DApp) on the Ethereum network.
- Master smart contract programming in Solidity, focusing on security and efficiency.
- Gain expertise in deploying DApps and smart contracts on the Ethereum mainnet.

**Time to complete this course: 8-12 weeks**


### Enroll now and start mastering DApp development!

Familiarity with programming languages like JavaScript or Python is crucial, as it forms the foundation for writing smart contracts and DApps.

Strong Programming Skills

A solid grasp of blockchain fundamentals will help you navigate the complexities of Ethereum and smart contract development effectively.

Basic Understanding of Blockchain Concepts

Experience with frameworks like React or Angular is important for building user interfaces for your DApp, enhancing user interaction.

Familiarity with Web Development Frameworks

Proficiency in Git is essential for managing code changes and collaborating on projects, ensuring smooth development workflows.

Experience with Version Control Systems

Understanding cryptographic concepts is vital for ensuring the security and integrity of your smart contracts.

Knowledge of Cryptographic Principles

## Transform Your Career with Expert DApp Development!

Embark on a transformative journey into the world of blockchain development. This advanced course is meticulously crafted for expert developers eager to master the art of decentralized application (DApp) development on the Ethereum network. Dive deep into the intricacies of smart contracts and Solidity, while gaining hands-on experience that will set you apart in the rapidly evolving blockchain landscape. By the end of this course, you'll not only develop a fully functional DApp but also position yourself as a leader in the blockchain sector, ready to tackle real-world challenges and innovate within the Ethereum ecosystem.

### Who is it For?
This course is designed specifically for expert developers who are not just looking to enhance their skill set, but to dominate the blockchain space. If you find yourself grappling with complex blockchain architectures, navigating the ever-evolving Ethereum ecosystem, or seeking to ensure the security of your smart contracts, this course is your game-changer.

**Skill Level**: Expert  
**Audience**: Experienced developers with a strong background in programming and software development, Blockchain technology companies, Members of the Ethereum community

### Prerequisites
This course is not just a challenge; it's your launchpad into the blockchain universe! To thrive, you'll need a solid foundation:
- Strong Programming Skills in JavaScript or Python
- Basic Understanding of Blockchain Concepts
- Familiarity with Web Development Frameworks
- Experience with Version Control Systems like Git
- Knowledge of Cryptographic Principles

### What's Inside?
Get ready to dive deep into the world of DApp development! This course is packed with modules designed to provide you with the skills and knowledge needed to excel in blockchain technology.

**Modules**:
- Unlocking Blockchain Architecture
- Smart Contracts: The Backbone of DApps
- Frameworks for DApp Development
- Mastering Deployment Strategies
- Integrating with Existing Systems
- Final Project Presentation

**Quizzes**: Each module includes quizzes to reinforce your learning and ensure you grasp the key concepts of blockchain and DApp development.

**Assignments**: Assignments will challenge you to apply your knowledge practically, including deploying smart contracts and creating user-centric DApps.

**Practical Project**: Your hands-on project will involve developing a fully functional DApp, showcasing your skills in real-world scenarios.

**Before You Start**: Before you start, familiarize yourself with the prerequisites to ensure a smooth learning experience.

**Books to Read**: Recommended readings will deepen your understanding of blockchain technology and DApp development best practices.

**Glossary**: A comprehensive glossary will help you navigate the technical terms used throughout the course.

### What Will You Learn?
By the end of this course, you will have mastered the skills necessary to thrive in the blockchain industry.
- Develop a fully functional decentralized application (DApp) on the Ethereum network.
- Master smart contract programming in Solidity, focusing on security and efficiency.
- Gain expertise in deploying DApps and smart contracts on the Ethereum mainnet.

### Time to Complete
8-12 weeks

#Enroll now and start mastering DApp development!

A decentralized digital ledger that records transactions across multiple computers, ensuring security and transparency.

A decentralized platform for building DApps, enabling smart contracts through its native cryptocurrency, Ether.

A high-level programming language specifically designed for writing smart contracts on the Ethereum blockchain.

Decentralized Application; software that runs on a blockchain network, utilizing smart contracts for backend operations.

Self-executing contracts with the terms directly written into code, enabling automatic enforcement of agreements.

A unit that measures the computational work required to execute operations on the Ethereum network, influencing transaction fees.

The process of publishing a smart contract or DApp to the Ethereum blockchain for public use.

A JavaScript library that allows interaction with the Ethereum blockchain and smart contracts from web applications.

The native cryptocurrency of the Ethereum platform, used for transactions and as a means to pay for gas.

A protocol that ensures all nodes in a blockchain network agree on the state of the blockchain, maintaining its integrity.

The ability of different blockchain systems to communicate and operate with one another, enhancing functionality.

The part of DApp development focused on the user interface and experience, often using frameworks like React or Angular.

Connecting external services or systems to a DApp, allowing it to interact with other applications and data sources.

A system that records changes to code, allowing developers to track revisions and collaborate effectively.

A thorough examination of smart contracts to identify vulnerabilities and ensure they operate as intended.

A simulated blockchain environment used for deploying DApps and testing their functionality without real Ether.

The practice of securing information through techniques such as encryption, essential for blockchain security.

A software testing method that focuses on individual components of code to ensure they function correctly.

A collaborative process where developers evaluate each other's code and smart contracts for quality and security.

The capability of a blockchain network to handle an increasing number of transactions without compromising performance.

Preparing for potential issues during DApp deployment, ensuring strategies are in place to address them.

Comprehensive records of the development process, including code comments, usage guides, and integration details.

The process of verifying a user's identity, often implemented in DApps using wallets like MetaMask.

A document outlining the strategies and outcomes of deploying a DApp, including lessons learned.

A culminating showcase of the DApp developed, demonstrating features, development processes, and key insights.

Blockchain technology is built on several core components that work together to create a secure, decentralized system. Understanding these components is crucial for anyone looking to develop DApps. This lesson will cover the essential elements of blockchain, including nodes, ledgers, and cryptographic principles.

Understanding Blockchain Structure and Components

At its core, a blockchain is a distributed ledger that records transactions across many computers. This ensures that the record cannot be altered retroactively without the alteration of all subsequent blocks and the consensus of the network.

Key components of a blockchain include:
- **Nodes**: Individual computers that participate in the blockchain network.
- **Ledgers**: The records of transactions that are maintained across all nodes.
- **Blocks**: Data structures that hold a list of transactions.

🔍 **Tip**: Always consider the implications of decentralization when designing your DApp. It can significantly impact performance and security.

Recognizing the Significance of Consensus Algorithms

Consensus algorithms are protocols that consider a transaction as valid and ensure all nodes in the network agree on the state of the blockchain. They are crucial for maintaining the integrity of the blockchain.

Common consensus algorithms include:
- **Proof of Work (PoW)**: Used by Bitcoin and Ethereum (currently transitioning to PoS).
- **Proof of Stake (PoS)**: Utilized by newer blockchains for energy efficiency.

"Decentralization is the foundation of blockchain technology, ensuring that no single entity has control over the entire network."

Ethereum's architecture is designed to support smart contracts and DApps. It consists of several layers, including:
- **Ethereum Virtual Machine (EVM)**: The runtime environment for executing smart contracts.
- **Smart Contracts**: Self-executing contracts with the terms of the agreement directly written into code.

Key features of Ethereum include:
- **Turing Completeness**: Allows the creation of complex contracts.
- **Gas Mechanism**: A fee structure that prevents spam and allocates resources.

Discussing the Implications of Blockchain Design

The design of a blockchain influences its scalability, security, and usability. For instance, a blockchain that prioritizes security may sacrifice speed, while one focused on scalability may compromise on decentralization.

Considerations for blockchain design include:
- **Scalability**: The ability to handle an increasing number of transactions.
- **Security**: Protecting the network against attacks and fraud.

📈 **Common Pitfall**: Don't overlook the importance of scalability in your DApp design. As user adoption grows, your application must be able to handle increased demand without compromising performance.

Hands-On Exercise: Diagram the Blockchain Structure

Create a visual diagram that illustrates the components of a blockchain, including nodes, ledgers, and blocks. Use this diagram to explain how each component interacts with the others.

Complete the following tasks:
- Research the key components of blockchain architecture.
- Create a visual diagram illustrating the Ethereum architecture and its components.

Real-World Example: Analyzing Existing DApps

Examine a successful DApp, such as Uniswap or CryptoKitties. Analyze how its architecture supports its functionality and what components are critical for its operation.

Conduct a peer discussion on the trade-offs between different blockchain technologies and their implications for DApp development.

Homework: Blockchain Architecture Analysis

The Building Blocks of Blockchain

Quiz on Blockchain Fundamentals

Consensus algorithms are the backbone of blockchain networks, ensuring that all nodes agree on the current state of the ledger. This is crucial for maintaining security and integrity in decentralized systems. Without a consensus mechanism, a blockchain would be vulnerable to attacks and discrepancies.

Several consensus algorithms exist, each with its unique features and trade-offs. Here are some of the most notable ones:

**Proof of Work (PoW)**: Used by Bitcoin, it requires computational power to solve cryptographic puzzles.

**Proof of Stake (PoS)**: Ethereum 2.0 is transitioning to this model, where validators are chosen based on the number of coins they hold and are willing to 'stake'.

**Delegated Proof of Stake (DPoS)**: A variation where stakeholders vote for delegates to validate transactions.

**Practical Byzantine Fault Tolerance (PBFT)**: A consensus mechanism that is designed to work efficiently even in the presence of faulty nodes.

🔍 **Tip**: When evaluating consensus algorithms, consider factors like scalability, security, and energy efficiency. Each algorithm has its strengths and weaknesses, and the choice often depends on the specific requirements of your DApp.

Understanding the pros and cons of each consensus algorithm is crucial for effective DApp development. Let's break down some key strengths and weaknesses.

Practical Byzantine Fault Tolerance (PBFT)

The choice of consensus algorithm can significantly impact the performance of your DApp. Here are some factors to consider:

**Transaction Speed**: Different algorithms can process transactions at different rates.

**Scalability**: Some algorithms can handle more users and transactions than others.

**Security**: The robustness against attacks varies between algorithms.

⚠️ **Common Mistake**: Many developers choose a consensus algorithm based solely on popularity without considering the specific needs of their DApp. Always align your choice with your project goals.

To deepen your understanding, engage in discussions with peers about the merits and drawbacks of different consensus algorithms. Consider hosting a debate or forum where developers can share their experiences and insights.

Participate in a peer forum discussing consensus algorithms and their impact on DApp performance.

Real-World Examples of Consensus Algorithms in Action

Let’s look at how different consensus algorithms are applied in real-world scenarios. For instance, Bitcoin's PoW has proven effective for security but faces criticism for energy consumption. On the other hand, Ethereum's shift to PoS aims to address these concerns while maintaining security.

By analyzing these examples, you can better understand how to select the right consensus algorithm for your DApp.

"The choice of consensus algorithm can make or break your DApp. Choose wisely!" - Blockchain Expert.

Hands-On Exercise: Consensus Algorithm Evaluation

Now, it's time for a practical exercise. Choose a consensus algorithm and evaluate its suitability for a hypothetical DApp you wish to develop. Consider the following points in your evaluation:

What are the specific needs of your DApp?

How does the chosen consensus algorithm meet those needs?

What trade-offs are you willing to accept?

Document your evaluation and be prepared to present your findings in the next class.

Consensus Algorithm Research and Application

Consensus Algorithms Demystified

Consensus Algorithms Evaluation Quiz

Understanding the Components of the Ethereum Ecosystem

The Ethereum ecosystem is built on several key components that work together to facilitate decentralized applications. Understanding these components is crucial for any developer aiming to create robust DApps. The main elements include:

**Ethereum Blockchain**: The foundational layer where all transactions are recorded.

**Smart Contracts**: Self-executing contracts with the terms of the agreement directly written into code.

**Ethereum Virtual Machine (EVM)**: The runtime environment for executing smart contracts.

**Decentralized Applications (DApps)**: Applications that run on the Ethereum blockchain.

**Tokens**: Digital assets created on the Ethereum blockchain, such as ERC-20 and ERC-721 tokens.

Ethereum stands out in the blockchain space due to its unique features, which significantly impact DApp development. These features include:

**Smart Contract Functionality**: Enables automated transactions and complex programming.

**Decentralization**: Eliminates the need for intermediaries, enhancing trust and security.

**Interoperability**: Allows different DApps to interact with one another.

**Community and Ecosystem**: A vibrant community that supports developers through resources, forums, and events.

To grasp the potential of Ethereum, it's essential to explore existing DApps that have successfully leveraged its capabilities. Some notable examples include:

**Uniswap**: A decentralized exchange that allows users to swap various cryptocurrencies.

**CryptoKitties**: A blockchain-based game that allows users to buy, sell, and breed virtual cats.

**Compound**: A decentralized finance protocol that allows users to lend and borrow cryptocurrencies.

Mapping the Ethereum ecosystem involves understanding how its components interact and the flow of information. To enhance your mapping skills, consider the following activities:

Create a flowchart illustrating the interaction between smart contracts, the EVM, and DApps.

Identify and document the APIs used by popular DApps for integration.

Participate in community discussions to deepen your understanding of Ethereum's architecture.

🛠️ **Tip**: Use tools like Ethereum's official documentation and community forums to stay updated on the latest developments.

As you navigate the Ethereum ecosystem, be mindful of common pitfalls that can hinder your DApp development process. These include:

Neglecting security best practices when writing smart contracts.

Overlooking gas optimization, which can lead to high transaction costs.

Failing to test DApps thoroughly before deployment.

Real-World Example: A Successful DApp Launch

Consider the launch of **Aave**, a decentralized lending protocol. Aave's success can be attributed to its robust architecture, effective use of smart contracts, and a strong community backing. Analyzing such successful DApps can provide valuable lessons for your own projects.

Hands-On Exercise: Mapping the Ethereum Ecosystem

To solidify your understanding, engage in a hands-on exercise where you will map out the Ethereum ecosystem. This will involve:

Researching the key components of Ethereum.

Creating a visual representation of how these components interact.

Presenting your findings in a peer discussion.

Homework: Exploring the Ethereum Ecosystem

Ethereum Ecosystem Overview

Ethereum Ecosystem Quiz

Scalability is the ability of a blockchain network to handle a growing amount of work or its potential to accommodate growth. In the context of Ethereum, scalability challenges arise from limited transaction throughput and high gas fees during peak usage times.

Ethereum's scalability issues primarily stem from its consensus mechanism, which is currently Proof of Work (PoW). This mechanism limits the number of transactions processed per second (TPS). As the network grows, transaction times increase, and fees can skyrocket, making it less feasible for users to transact.

Limited TPS (around 30 transactions per second)

High gas fees during peak congestion periods

Difficulty in handling large-scale DApps effectively

Several solutions have been proposed and implemented to address Ethereum's scalability challenges. These solutions range from layer 2 technologies to changes in the consensus mechanism.

By understanding and addressing scalability challenges, you will be better equipped to develop robust DApps that can thrive in a competitive landscape.

Homework

Scalability Challenges and Solutions

Scalability Quiz

The blockchain ecosystem is diverse, with numerous technologies emerging to address different needs. Understanding the nuances of these technologies is essential for any expert developer aiming to build robust decentralized applications.

Identifying Various Blockchain Technologies

Blockchain technologies can be categorized into public, private, and consortium blockchains. Each type serves different purposes and comes with its own set of features.

Public Blockchains: Open to everyone (e.g., Bitcoin, Ethereum).

Private Blockchains: Controlled by a single entity (e.g., Hyperledger).

Consortium Blockchains: Managed by a group of organizations (e.g., R3 Corda).

When comparing blockchain technologies, it’s essential to evaluate their strengths and weaknesses. This analysis helps in understanding which technology is best suited for specific DApp requirements.

Conduct a SWOT analysis for at least three blockchain technologies.

🔍 **Tip:** Focus on scalability, security, and transaction speed when analyzing strengths and weaknesses.

The choice of blockchain technology directly impacts the design and functionality of your DApp. For instance, Ethereum's smart contract capabilities allow for complex DApps, while simpler blockchains may be more suitable for basic applications.

"The right blockchain technology can make or break your DApp's success." - Blockchain Expert

Collaboration with peers can provide new insights and perspectives. Engaging in discussions about different blockchain technologies can enhance your understanding and help you make better decisions.

Participate in a forum or discussion group focused on blockchain technologies.

To further understand the implications of different blockchain technologies, examine real-world applications. Analyzing successful DApps can provide insights into how specific technologies were leveraged for success.

Ethereum: Decentralized finance (DeFi) applications.

Hyperledger: Supply chain management solutions.

Corda: Financial services and trade finance.

Create a comparative report on at least three blockchain technologies, detailing their strengths, weaknesses, and implications for DApp development. Use diagrams and charts to illustrate key points.

Complete the comparative report and prepare to present your findings.

Comparative Analysis of Blockchain Technologies

Blockchain Technology Quiz

Blockchain architecture is the backbone of decentralized applications. It encompasses the structure and components that enable secure and efficient transactions. In this lesson, we will dissect various blockchain architectures, focusing on Ethereum, and explore how these designs influence DApp performance.

Analyzing Real-World Blockchain Applications

Real-world applications of blockchain technology provide invaluable insights into its architecture. For example, Bitcoin's architecture emphasizes security and decentralization, while Ethereum's architecture supports complex smart contracts and DApps. Understanding these differences is crucial for any developer.

When developing a DApp, the architecture decisions you make can have long-lasting implications. For example, choosing a consensus algorithm affects how transactions are validated and can impact the overall efficiency of your DApp. Let's examine some popular consensus algorithms:

1. **Proof of Work (PoW)**: Used by Bitcoin, it is energy-intensive but highly secure.
2. **Proof of Stake (PoS)**: Utilized by Ethereum 2.0, it is more energy-efficient and encourages network participation.

Applying Theoretical Knowledge to Practice

To truly grasp blockchain architecture, practical application is key. Here’s a hands-on exercise:

1. **Select a DApp**: Choose an existing DApp and analyze its architecture.
2. **Identify Components**: Document the key components, including consensus mechanism, smart contract structure, and user interface.
3. **Evaluate Performance**: Assess how the architecture impacts the DApp's performance and user experience.

As you analyze blockchain architectures, developing your presentation skills is essential. Here are some tips:
- **Structure Your Presentation**: Start with an overview of the architecture, followed by a detailed analysis of its components.
- **Engage Your Audience**: Use visuals, such as diagrams and charts, to illustrate complex concepts.
- **Practice Q&A**: Prepare for questions that may arise during your presentation to demonstrate your understanding.

"The architecture of a blockchain is not just a technical choice; it defines the entire ecosystem of applications that can be built upon it." - Vitalik Buterin

When analyzing blockchain architecture, avoid these common pitfalls:
- **Overlooking Security**: Always assess the security implications of architectural choices.
- **Neglecting Scalability**: Ensure that the architecture can handle future growth and user demand.

Checklist for Analyzing Blockchain Architecture

- [ ] Identify the key components of the blockchain architecture.
- [ ] Evaluate the consensus mechanism used.
- [ ] Assess the scalability and security features.
- [ ] Document your findings in a structured report.

Blockchain Architecture in Action

Blockchain Architecture Quiz

Explore the foundational principles of blockchain technology, focusing on the Ethereum ecosystem. This module emphasizes understanding complex architectures, consensus algorithms, and their implications for DApp development.

Unlocking Blockchain Architecture

Before diving into the setup process, it's crucial to understand the essential components that will form the backbone of your Solidity development environment. You will need a code editor, a local blockchain simulation, and a testing framework. Let's break these down.

**Code Editor:** A reliable code editor like Visual Studio Code or Atom will provide syntax highlighting and code completion for Solidity.

**Local Blockchain Simulation:** Tools like Ganache allow you to simulate a blockchain environment on your local machine, making it easier to test your contracts.

**Testing Framework:** Frameworks such as Truffle or Hardhat are essential for writing and running tests for your smart contracts.

🔧 **Tip:** Always keep your tools updated to the latest versions to benefit from improvements and security patches.

Follow these steps to set up your Solidity development environment:

**Install Node.js:** Node.js is required for most development tools. Download and install it from the official website.

**Install Truffle:** Open your terminal and run `npm install -g truffle` to install Truffle globally.

**Install Ganache:** Download Ganache from the Truffle Suite website and install it.

**Install a Code Editor:** Download and install Visual Studio Code or your preferred code editor.

**Create a New Truffle Project:** In your terminal, navigate to your desired directory and run `truffle init` to create a new project.

Even with a solid plan, issues may arise during setup. Here are some common problems and their solutions:

**Node.js Not Recognized:** Ensure that Node.js is correctly installed and added to your system's PATH.

**Truffle Command Not Found:** Verify that Truffle is installed globally and check your PATH settings.

**Ganache Not Starting:** If Ganache fails to start, ensure that no other blockchain simulation is running on the same port.

Setting up your environment can be daunting, and engaging with peers can be incredibly beneficial. Consider joining forums, Discord channels, or local meetups focused on Ethereum and Solidity development. Share your experiences, ask for help, and offer assistance to others.

"The best way to learn is to teach others." - Anonymous

Hands-On Exercise: Setting Up Your Environment

Now that you've learned the essential components and setup steps, it's time to put this knowledge into practice.

1. Follow the setup guide to create your Solidity development environment.

2. Write a simple "Hello World" smart contract and deploy it on Ganache.

3. Document any challenges you faced during the setup process.

4. Share your experience in a peer forum or with a study group.

Homework: Environment Setup and Exploration

Setting Up Your Solidity Environment

Solidity Environment Setup Quiz

Smart contracts are self-executing contracts with the terms of the agreement directly written into code. They run on the Ethereum blockchain, allowing for trustless transactions and automated processes. Understanding their structure and functionality is crucial for any DApp developer.

A smart contract typically consists of the following components:
- **State Variables**: Store the contract's data.
- **Functions**: Define the contract's behavior and operations.
- **Modifiers**: Control the execution of functions based on certain conditions.
- **Events**: Allow external applications to listen for changes.

Writing Your First Smart Contract

Dive deep into smart contracts using Solidity. This module prepares you to tackle real-world challenges in smart contract development, emphasizing best practices for security and optimization.

DApp Mastery Course - Build with Ethereum

Course Modules

Module 1: Unlocking Blockchain Architecture

Module 2: Smart Contracts: The Backbone of DApps

Module 3: Frameworks for DApp Development

Module 4: Mastering Deployment Strategies

Module 5: Integrating with Existing Systems

Module 6: Final Project Presentation

What you'll learn

Time Commitment