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  • Writer's pictureEko Lance

Blockchain Analytics 101: The Ultimate Beginner's Guide

An image of a simple dashboard made from Dune, a blockchain analytical tool.

Blockchain is a distributed ledger technology that serves as a system for recording information in a way that makes it difficult or impossible to change, hack, or cheat the system.


Blockchain technology has changed the way we think about digital transactions and data storage. 


As this technology continues to evolve and gain widespread adoption, the need for understanding and analyzing blockchain data has become increasingly important. This is where blockchain analytics comes into play.


What is Blockchain Analytics?

Blockchain analytics refers to the process of examining, interpreting, and deriving insights from blockchain data. It involves scrutinizing blockchain transactions, addresses, smart contracts, and other on-chain activities to uncover patterns, trends, and valuable information. 


In today's digital economy, blockchain analytics has become a crucial tool for businesses, investors, researchers, and regulators alike.


What are Blockchain Transactions?

Before diving deeper into blockchain analytics, it's essential to understand what blockchain transactions are and how they work. 

 An image showing how blockchain transactions work.

A blockchain transaction is a transfer of value between two addresses on a blockchain network. These transactions are the building blocks of blockchain technology and form the basis for all activities on the network.


Here's how blockchain transactions typically work:


1. Initiation: A user initiates a transaction by specifying the recipient's address and the amount to be sent.

2. Broadcast: The transaction is broadcast to the network and placed in a pool of unconfirmed transactions.

3. Verification: Network nodes (miners or validators) verify the transaction's validity.

4. Inclusion in a block: Once verified, the transaction is included in a new block.

5. Confirmation: The block is added to the blockchain, confirming the transaction.

6. Finality: After several more blocks are added, the transaction is considered final and irreversible.


The transparency of blockchain transactions is one of the key features that make blockchain technology so powerful. Every transaction is recorded on a public ledger, allowing anyone to view and verify the transaction history.


What is the Significance of Blockchain Analytics?

Blockchain analytics plays a crucial role in extracting value from the vast amount of data stored on blockchain networks. Its significance can be understood through several key aspects:


Blockchain Analytics for Transparency

  • Enhanced visibility: Blockchain analytics provides a clear view of all transactions, helping to track the flow of assets and identify patterns.

  • Auditability: It enables thorough audits of transactions, ensuring compliance and detecting anomalies.

  • Trust building: By providing transparent insights, blockchain analytics helps build trust among users and stakeholders.


Fraud Detection Using Blockchain Analytics

  • Anomaly detection: Analytics tools can identify unusual transaction patterns that may indicate fraudulent activity.

  • Wallet tracking: By analyzing wallet addresses and their interactions, potential scams or Ponzi schemes can be uncovered.

  • Real-time monitoring: Continuous analysis of blockchain data allows for quick detection and response to suspicious activities.

  • AML and KYC: Blockchain analytics aids in Anti-Money Laundering (AML) and Know-your-customer (KYC) processes by tracking fund sources and destinations.

  • Tax compliance: It helps in the accurate reporting of crypto-related income and transactions for tax purposes.

  • Legal investigations: Law enforcement agencies can use blockchain analytics to trace illicit activities and gather evidence.


Forensic Analysis Using Blockchain Data

  • Transaction tracing: Forensic analysts can follow the trail of transactions to uncover complex financial networks.

  • Asset recovery: In cases of theft or fraud, blockchain analytics can help locate and potentially recover stolen assets.

  • Historical analysis: It allows for in-depth examination of past transactions to uncover long-term patterns or relationships.


Examples of Blockchain Analytical Tools

Several tools have been developed to facilitate blockchain analytics. Here are some popular ones:

  • Google BigQuery: Google's cloud-based data warehouse offers public datasets for several blockchains, allowing powerful SQL-based queries on large volumes of blockchain data.

  • Dune Analytics: This platform enables users to query blockchain data using SQL and create custom dashboards and visualizations. It's particularly popular for its user-friendly interface and community-driven approach.

  • The Graph: A decentralized protocol for indexing and querying blockchain data, The Graph allows developers to create and publish open APIs (called subgraphs) that applications can query.

  • Nansen: Specializing in Ethereum analytics, Nansen provides features like wallet labeling, transaction tracking, and smart money analysis.

  • Flipside Crypto: Offering analytics for various blockchain networks, Flipside Crypto provides data science as a service and custom analytics solutions.

  • Covalent: This tool provides a unified API that brings visibility to billions of blockchain data points across multiple networks.


Each of these tools has its strengths and is suited for different use cases. For instance, Dune Analytics is great for creating custom queries and visualizations, while Nansen excels at providing insights into Ethereum wallet behaviors.


Methodologies in Blockchain Analytics

Address clustering is a technique used to group multiple blockchain addresses that are likely controlled by the same entity. This method is crucial for understanding the true nature of transactions and entity behaviors on the blockchain.


Here's how it works:

1. Heuristic analysis: Using common-sense rules to identify related addresses. For example, addresses that frequently transact together might belong to the same entity.

2. Co-spend analysis: Identifying addresses that are used as inputs in the same transaction, suggesting they're controlled by the same entity.

3. Behavioral patterns: Analyzing transaction patterns and timings to identify similarities among addresses.


Network Analysis in Blockchain Transactions

Network analysis in blockchain involves studying the relationships and interactions between different addresses or entities on the blockchain. This methodology helps in understanding the structure and dynamics of the blockchain ecosystem.


Key aspects include:

1. Graph theory: Representing blockchain data as a network graph, where addresses are nodes and transactions are edges.

2. Centrality measures: Identifying important or influential addresses in the network.

3. Community detection: Finding clusters of closely connected addresses that might represent organizations or groups.

4. Flow analysis: Tracking the movement of funds through the network to understand transaction patterns and asset distribution.


How to Query the Blockchain

Querying the blockchain is a fundamental skill in blockchain analytics. Here are some methods and tools you can use:

1. Block explorers: Websites like Etherscan (for Ethereum) or Blockchain.info (for Bitcoin) allow basic querying of transactions, addresses, and blocks.

2. API services: Many blockchain networks offer APIs that allow programmatic access to blockchain data.

3. Node running: Running a full node of a blockchain network gives you direct access to all blockchain data, allowing for custom queries.


Using Ethereum ETL for Blockchain Data Extraction

Ethereum ETL (Extract, Transform, Load) is an open-source tool that allows you to extract data from the Ethereum blockchain and export it into more easily queryable formats like CSV or JSON. Here's a basic workflow:

  1. Install Ethereum ETL

  2. Choose the data you want to extract (e.g., transactions, blocks, token transfers)

  3. Run the extraction command

  4. Process and analyze the extracted data


Google BigQuery for Blockchain Data Analysis

Google BigQuery hosts public datasets for several major blockchains, allowing for powerful SQL-based analysis. Here's how you can use it:

  1. Access Google Cloud Platform and navigate to BigQuery

  2. Select the blockchain dataset you want to analyze (e.g., bigquery-public-data.crypto_ethereum)

  3. Write and run SQL queries to analyze the data

  4. Visualize results using Google Data Studio or other tools


How to use Dune to Analyze Blockchains

1. Visit the Website: Go to Dune Analytics.

2. Sign Up: Create an account using your email or log in with an existing account.


 An image of Dune’s home page.
The first screen you see after signing in is a list of popular dashboards.

Dashboards are aggregations of queries and plotted graphs that other users have created, usually around specific topics.

Navigate to the Create tab and select the Create query section to begin writing queries.

An image of Dune's “create query page.”

On the Query page, Dune has an in-built SQL editor that you can use to type your queries to get information from the blockchain.

In the left navigation pane is a list of several data tables collated across several blockchains. You can inspect each data table depending on the information you seek.

An image of the query page on Dune where the analysis takes place.

You can copy the various queries below and paste them into Dune, then hit the run button and inspect the result.


Basic SQL Syntax for Beginners

SQL (Structured Query Language) is essential for querying blockchain data in many analytical tools.


Here's an introduction to some basic SQL commands:

  1. SELECT: Retrieves data from one or more tables

SELECT column1, column2 FROM table_name;
  1. WHERE: Filters the results based on a condition

SELECT * FROM transactions WHERE value > 1000000;
  1. GROUP BY: Groups rows that have the same values.

SELECT from_address, COUNT(*) as transaction_count 
FROM transactions 
GROUP BY from_address;
  1. ORDER BY: Sorts the result set in ascending or descending order

SELECT * FROM blocks 
ORDER BY timestamp DESC 
LIMIT 10;
  1. JOIN: Combines rows from two or more tables based on a related column

SELECT t.hash, t.value, b.timestamp 
FROM transactions t
JOIN blocks b ON t.block_number = b.number;

These basic commands will allow you to start querying blockchain data effectively.


How to Build a Simple Dashboard

Data visualization is crucial in blockchain analytics for presenting complex data in an easily understandable format.


Here's a step-by-step guide to building a simple blockchain analytics dashboard:

1. Choose a platform: Select a tool like Dune Analytics, Google Data Studio, or Tableau.

2. Connect to data source: Link your chosen platform to your blockchain data source.

3. Design your layout: Plan what metrics and charts you want to display.

4. Create visualizations: Use your platform's tools to create charts and graphs. Common visualizations include:

  • Line charts for time-series data (e.g., daily transaction volume)

  • Bar charts for comparisons (e.g., top token holders)

  • Pie charts for distributions (e.g., transaction types)

5. Add interactivity: Implement filters or drill-down capabilities to allow users to explore the data.

6. Publish and share: Most platforms allow you to publish your dashboard and share it with others.


Example: Analyzing NFT Data with Dune

Let's walk through a simple example of how to analyze NFT data using Dune Analytics:

1. Go to Dune Analytics and create a new query.

2. Use this SQL query to get the total NFT transactions and USD volume in the last 30 days across several blockchains

SELECT
  collection,
  COUNT(*) AS number_of_transactions,
  SUM(amount_usd) AS total_transaction_volume,
  SUM(platform_fee_amount_usd) AS total_platform_fees,
  SUM(royalty_fee_amount_usd) AS total_royalties
FROM nft.trades
WHERE nft_contract_address = 0x062E691c2054dE82F28008a8CCC6d7A1c8ce060D --(PudgyPresent)
GROUP BY collection 

3. Run the query and view the results.

4. Create a visualization: Click on "New Visualization", choose a chart type (e.g., bar chart), and configure it to display the data.

5. Add the visualization to your dashboard.

6. Repeat the process with other queries to build a comprehensive NFT analytics dashboard.

This example demonstrates how you can use SQL queries to extract meaningful insights from blockchain data and present them visually.


Conclusion

Blockchain analytics is a powerful tool that unlocks the value hidden within blockchain data. Its importance for Web3 businesses cannot be overstated – from enhancing transparency and detecting fraud to ensuring regulatory compliance and driving strategic decision-making.


As we've explored in this guide, blockchain analytics involves understanding blockchain transactions, utilizing various analytical tools and methodologies, and effectively querying and visualizing blockchain data. 


By mastering these skills, individuals and organizations can gain valuable insights that drive innovation and growth in the blockchain space.


The future of blockchain technology and analytics is bright. As blockchain adoption continues to grow across industries, the demand for sophisticated analytics tools and skilled analysts will only increase. 


Those who can effectively leverage blockchain analytics will be well-positioned to navigate the complexities of the decentralized digital economy and drive the next wave of blockchain innovations.


Remember, blockchain analytics is not just about understanding the past – it's about predicting trends, identifying opportunities, and shaping the future of decentralized systems. 


Whether you're a developer, investor, researcher, or business leader, developing your blockchain analytics skills is a valuable investment in the rapidly evolving world of Web3.


About EkoLance

EkoLance revolutionizes the future of work by empowering Web2 and blockchain professionals through its dual offerings. The first is an educational platform that provides quality and comprehensive training programs for upskilling in the blockchain space, ensuring that professionals are equipped with the latest industry knowledge and practical experience. We currently have a diverse community of over 9,000 blockchain professionals, including over 5000 Web3 developers proficient in Solidity and Rust. 


The second offering is our talent platform, techFiesta. It enables companies to launch hackathons, jobs, bounties, and onboard top-tier talent into their ecosystems, fostering innovation and growth. techFiesta has successfully organized over 30 online hackathons and developer challenges for major blockchain networks such as Gnosis chain, Celo, Solana, Concordium, etc.



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