Anti-Phishing Code: Protecting Blockchain Users from Social Engineering Attacks

Abstract Phishing remains one of the most prevalent threats to cryptocurrency users, often bypassing traditional security measures through social engineering. This article examines anti‑phishing code as a technical countermeasure within blockchain and cryptocurrency platforms. It explains the fundamentals of phishing, reviews cryptographic techniques such as domain‑bound signatures, EIP‑712 typed data, and smart‑contract address verification, and explores practical implementations ranging from wallet UI safeguards to on‑chain verification services. Real‑world case studies—including MetaMask's anti‑phishing warnings, Binance's phishing‑resistant login, and decentralized domain name systems—illustrate how developers can embed protective logic directly into code. The piece also outlines emerging risks, future standards, and actionable best‑practice tips for developers and end‑users. By the end of the article, readers will understand both the theory and practice of anti‑phishing code, enabling them to design more resilient cryptocurrency applications. Key Takeaways Anti‑phishing code leverages cryptographic techniques like domain‑bound signatures, EIP‑712 typed data, and on‑chain address verification to block social‑engineering attacks.- Real‑world examples—MetaMask's phishing warnings, Binance's phishing‑resistant login, and decentralized domain systems—show how UI safeguards and smart‑contract logic can automatically detect and warn users.- Developers should adopt emerging standards, continuous verification services, and best‑practice guidelines to future‑proof blockchain applications against evolving phishing threats. Conclusion Phishing attacks exploit the very trust that fuels the rapid adoption of blockchain and cryptocurrency technologies. By embedding anti‑phishing code directly into wallets, smart contracts, and decentralized registries, developers can provide cryptographic proof of legitimacy that dramatically reduces the chance of a user being deceived. This article has outlined the fundamental concepts behind phishing, examined the technical building blocks such as EIP‑712, ENS domain verification, and on‑chain... 🚀 Start Your Crypto Investment Journey This research is proudly supported by our collaboration with Binance, the world's leading digital asset trading platform. ✅ Register with our exclusive invitation code A6789 to enjoy a permanent discount on trading fees ✅ Access to a vast ecosystem of digital assets and secure trading environment ✅ Trusted by millions of users worldwide Register Now and Claim Your Bonus →

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2025-10-09
DOI
https://doi.org/10.5281/zenodo.17300041
Primary Topic
Evolution and Genetic Dynamics
Type
article
Field-Weighted Citation Impact
0.00
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article

Anti-Phishing Code: Protecting Blockchain Users from Social Engineering Attacks

Zenodo (CERN European Organization for Nuclear Research)
Evolution and Genetic Dynamics
article

Anti-Phishing Code: Protecting Blockchain Users from Social Engineering Attacks

article en

Abstract

Abstract Phishing remains one of the most prevalent threats to cryptocurrency users, often bypassing traditional security measures through social engineering. This article examines anti‑phishing code as a technical countermeasure within blockchain and cryptocurrency platforms. It explains the fundamentals of phishing, reviews cryptographic techniques such as domain‑bound signatures, EIP‑712 typed data, and smart‑contract address verification, and explores practical implementations ranging from wallet UI safeguards to on‑chain verification services. Real‑world case studies—including MetaMask's anti‑phishing warnings, Binance's phishing‑resistant login, and decentralized domain name systems—illustrate how developers can embed protective logic directly into code. The piece also outlines emerging risks, future standards, and actionable best‑practice tips for developers and end‑users. By the end of the article, readers will understand both the theory and practice of anti‑phishing code, enabling them to design more resilient cryptocurrency applications. Key Takeaways Anti‑phishing code leverages cryptographic techniques like domain‑bound signatures, EIP‑712 typed data, and on‑chain address verification to block social‑engineering attacks.- Real‑world examples—MetaMask's phishing warnings, Binance's phishing‑resistant login, and decentralized domain systems—show how UI safeguards and smart‑contract logic can automatically detect and warn users.- Developers should adopt emerging standards, continuous verification services, and best‑practice guidelines to future‑proof blockchain applications against evolving phishing threats. Conclusion Phishing attacks exploit the very trust that fuels the rapid adoption of blockchain and cryptocurrency technologies. By embedding anti‑phishing code directly into wallets, smart contracts, and decentralized registries, developers can provide cryptographic proof of legitimacy that dramatically reduces the chance of a user being deceived. This article has outlined the fundamental concepts behind phishing, examined the technical building blocks such as EIP‑712, ENS domain verification, and on‑chain... 🚀 Start Your Crypto Investment Journey This research is proudly supported by our collaboration with Binance, the world's leading digital asset trading platform. ✅ Register with our exclusive invitation code A6789 to enjoy a permanent discount on trading fees ✅ Access to a vast ecosystem of digital assets and secure trading environment ✅ Trusted by millions of users worldwide Register Now and Claim Your Bonus →

Zenodo (CERN European Organization for Nuclear Research)
Community Partners (US)
Openalex Percentile: Top 34%
Evolution and Genetic Dynamics
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