| Journal of Information and Communications Technology:
Algorithms, Systems and Applications
Received: 10 May 2025; Revised: 28 May 2025; Accepted: 12 June 2025; Published Online: 24 June 2025.
J. Inf. Commun. Technol. Algorithms Syst. Appl., 2025, 1(1), 25306 | Volume 1 Issue 1 (June 2025) | DOI: https://doi.org/10.64189/ict.25306
© The Author(s) 2025
This article is licensed under Creative Commons Attribution NonCommercial 4.0 International (CC-BY-NC 4.0)
Email Security Using Email Aliasing
Vijaykumar Bidve,
1
Kiran Kakade
2
and Mohd Shafi Pathan
3,*
1
School of Computer Science and Information Technology, Symbiosis Skills and Professional University, Pune,
Maharashtra, 412101, India.
2
Faculty of Management, Symbiosis Institute of Management Studies (SIMS), Symbiosis International (Deemed
University), Pune, Maharashtra, 412115, India
3
Department of Computer Science and Information Technology, MIT Art Design and Technology University, Pune,
Maharashtra, 412201, India
*Email: shafi.pathan@mituniversity.edu.in (Mohd S. Pathan)
Abstract
E-mail has become a vital tool for communication in the digital era. But it's becoming more and harder to
manage emails effectively while maintaining security due to the increase in online dangers and email traffic.
One possible way to overcome these difficulties is via email aliasing, which involves setting up several email
accounts that forward messages to a central mailbox. Generating many email names for a single mailbox, or
email aliasing, has several advantages, such as increased security, better workflow, and effective communication.
An in-depth discussion of email aliasing's features, advantages, potential security risks, and implementation
methods is presented through this work. This article aims to provide helpful information to people and
businesses looking to improve email management procedures by clarifying how email aliasing contributes to
increased email security and efficiency.
Keywords: Email security; Spam prevention; Phishing mitigation; Alias management systems; Privacy protection.
1. Introduction
Email communication has become indispensable in personal and professional domains, serving as a
cornerstone of digital interaction. However, the surge in email usage has been paralleled by escalating concerns
over security vulnerabilities, privacy breaches, and the overwhelming influx of messages, necessitating
innovative solutions for effective email management.
[1,2]
Email aliasing emerges as a pivotal strategy in this
context, offering a robust mechanism to enhance security, streamline workflows, and safeguard user privacy.
[3,4]
By enabling the creation of multiple email aliases linked to a single mailbox, this approach facilitates the efficient
management of diverse communication channels while mitigating risks associated with spam, phishing, and
unauthorized access.
[5]
The evolution of email aliasing underscores its transformative potential in addressing
modern email challenges. Initially conceived as a rudimentary tool for customizing email identities, aliasing has
evolved into a sophisticated framework integrated with advanced email systems.
[6]
Contemporary
implementations leverage cutting-edge technologies such as Sender Policy Framework (SPF), DomainKeys
Identified Mail (DKIM), and Domain-based Message Authentication, Reporting, and Conformance (DMARC) to
fortify authentication and minimize spoofing threats. Additionally, the incorporation of single sign-on (SSO) and
identity management systems exemplifies the versatility of email aliasing in corporate environments, enabling
centralized control over access and communication protocols.
[7,8]
This research delves into the multifaceted
dimensions of email aliasing, encompassing its conceptual underpinnings, technical implementations, and
practical applications. It explores the diverse types of aliases-personal, role-based, generic, and disposable-and
their utility in optimizing email workflows and ensuring privacy.
[9]
The study further examines the integration
of aliasing with server-side configurations, client-side tools, and third-party services, highlighting their
strengths and limitations. By addressing critical security considerations and proposing best practices for alias
management, the research aims to equip users and organizations with actionable insights to harness the full
potential of email aliasing.
[10]
Email aliasing is a testament to communication systems' adaptability in an era
characterized by rapid technological advancements and growing cyber threats. Its capacity to enhance privacy,
bolster security, and facilitate organized communication positions it as a vital tool for navigating the
complexities of the digital age.
[11]
This paper seeks to contribute to the discourse on email management by
elucidating the strategic advantages of aliasing and proposing innovative approaches for its effective
implementation.
The evolution of email aliasing reflects the dynamic nature of email communication and its adaptation to
address emerging privacy, efficiency, and security challenges. Initially, email systems provided users a static
email address tied to their account credentials.
[12]
However, as email became an integral tool for personal and
professional communication, users encountered challenges in managing increasing volumes of messages,
distinguishing between different lines of communication, and safeguarding their privacy. These limitations
prompted the development of alias-based systems, which allowed users to create additional email addresses,
or aliases, that forwarded messages to a primary inbox.
[13,14]
Early implementations of email aliasing were
rudimentary, requiring manual configuration via server-side settings or email client interfaces. Despite these
initial complexities, the utility of aliases in streamlining communication and enhancing privacy led to their
growing adoption.
[15]
As email services matured, providers integrated more sophisticated aliasing features into
their platforms, making the process accessible even to users with limited technical expertise. Modern email
systems offer intuitive interfaces and tools for alias creation, management, and customization, enabling users
to adapt email communication to diverse organizational and individual needs. These advancements have been
complemented by technological innovations that enhance the functionality and security of email aliasing.
Protocols such as Sender Policy Framework (SPF), DomainKeys Identified Mail (DKIM), and Domain-based
Message Authentication, Reporting, and Conformance (DMARC) have bolstered the authentication and
verification of email aliases, mitigating the risks of spoofing and phishing attacks. Integrating email aliasing with
identity management systems and single sign-on (SSO) solutions has expanded its utility, particularly in
corporate environments.
[16,17]
Centralized management of aliases and authentication processes enables
organizations to streamline user provisioning, enforce security protocols, and maintain control over access to
digital resources. Additionally, the scalability of aliasing allows businesses to adapt to dynamic communication
needs, such as managing temporary projects or facilitating customer interactions through role-based or
disposable aliases.
[18]
The evolution of email aliasing underscores its critical role in modern email management.
By addressing key challenges such as privacy protection, organizational efficiency, and security enhancement,
email aliasing has transitioned from a niche feature to a fundamental component of digital communication. As
advancements in email technologies continue, the potential applications and benefits of aliasing are poised to
expand, reinforcing its significance in a rapidly evolving digital landscape.
[19]
The integration of email aliasing into contemporary communication systems addresses the growing need for
secure, efficient, and centralized email management. Email aliasing involves creating virtual identities or aliases
that forward all correspondence to a single primary mailbox, enabling users to streamline communication while
safeguarding privacy.
[20]
This approach enhances organizational efficiency by consolidating multiple
communication channels into one inbox and strengthens security protocols. By isolating email interactions
through distinct aliases, users mitigate risks associated with spam, phishing, and unauthorized access.
Additionally, advanced email technologies, such as Sender Policy Framework (SPF), DomainKeys Identified Mail
(DKIM), and Domain-based Message Authentication, Reporting, and Conformance (DMARC), further secure
email aliasing by authenticating sender identities and reducing spoofing attempts.
[21]
The method of alias
creation, whether through server-side configurations, client-side management, or third-party services, offers
flexibility tailored to diverse user requirements. Furthermore, the use of disposable aliases for temporary
purposes, such as online registrations, exemplifies the adaptability of email aliasing in preserving privacy. As
demonstrated in practical implementations, email aliasing simplifies workflows and promotes privacy and
resource optimization, making it a critical tool for modern communication in personal and professional
contexts.
[22]
The types of Email aliases are as mentioned subsequently. Personal Aliases: Personalized email addresses for
private correspondence, such as firstname.lastname@example.com or nickname@example.com, are often
created using these aliases. Role-based Aliases: These aliases, which include sales@example.com,
support@example.com, and info@example.com, are intended to stand out for certain business positions or
responsibilities. These aliases simplify departmental cooperation and communication channels. Generic
Aliases: These catch-all or generic email addresses, such as contact@example.com or feedback@example.com,
are used to receive messages about general questions, comments, or subscriptions but are not associated with
any particular person. Disposable Aliases: Users may instantly generate disposable aliases, short-lived or one-
time use addresses, to sign up for online services, engage in forums, or communicate with strangers. These
aliases reduce spam and protect privacy.
[23]
Email aliasing is implemented using various techniques as mentioned subsequently. Server-side Alias
Configuration: Users may create and modify aliases using administrative controls or configuration files with this
approach. Aliases are handled and configured at the email server level. Although server-side aliasing offers
centralized administration and control over alias settings, its setup and upkeep may require technical know-
how. Client-side Alias Management: A few email clients and programs have built-in tools to create and manage
aliases from the user interface. Convenience and accessibility may be improved by users organizing aliases into
groups or categories, creating aliases, and specifying forwarding rules. Third-party Alias Services: Several third-
party email systems and services are experts at supplying aliasing features as a part of their service packages.
To meet the requirements and preferences of specific users, these services may include additional capabilities
like alias masking, alias rotation, and domain customization.
[24]
2. Methodology
2.1 Literature review
Traditional email-based notifications have low delivery rates and are prone to distrust and spam filtering. Postal
letters offer better remediation rates, but detailed descriptions of vulnerabilities can be mixed. Manual
intervention and user engagement tools can help mitigate limitations, but higher operational costs are
required.
[25]
A hybrid notification strategy, combining diverse communication methods, personalized
messaging, and accessible remediation support, can improve response rates and security outcomes.
[26]
The
document introduces a new method for enhancing the security of educational email services, particularly during
the COVID-19 pandemic. The method uses a deep attention collaborative mechanism to detect and categorize
spam emails, modeling spam as a social graph. It uses nonnegative matrix factorization and exponential random
graph models to identify overlapping user communities and local dependencies. The method's superiority is
demonstrated in sparse datasets typical of educational environments. Future research should explore complex
network features and optimize computational efficiency with advanced hardware.
[27]
CyberDART is a federated
system designed to combat email threats collaboratively. It uses a modular architecture with machine learning
and advanced algorithms like PATCH for pseudonymous text analysis, enhancing detection and response to
spam and phishing. The system uses real-time threat detection, secure data exchange, and adaptive learning to
ensure scalability and adaptability to evolving cyber threats. It operates through hierarchical nodes, with local
nodes performing initial analysis and central nodes aggregating data to detect invisible patterns. CyberDART
achieves higher accuracy in identifying threats and maintains low false positives. It also emphasizes security
and trust through configurable federation policies, allowing organizations with varying risk tolerances and
operational needs to collaborate effectively. Based on the situational crime prevention framework, the
document presents a sequential schema model for preventing and mitigating phishing emails. Key prevention
strategies include limiting personal information availability, implementing robust email filtering systems, and
conducting regular cybersecurity training. Email security is also discussed, focusing on techniques like digital
signatures, encryption protocols, and hashing algorithms to protect sensitive information.
[28]
The document
examines phishing email attacks and their mitigation measures within the situational crime prevention (SCP)
approach. It highlights the persistent threat of phishing emails, which exploit human and environmental
vulnerabilities to compromise sensitive information and disrupt operations. The paper highlights the increasing
sophistication of phishing campaigns, particularly during global crises like the COVID-19 pandemic. A
sequential schema model is introduced to address these attacks, integrating cybersecurity tools like email filters
and multifactor authentication with situational crime prevention techniques. It emphasizes the importance of
human-centric approaches, such as employee training and awareness campaigns, to promote vigilance and
accountability. The model also explores emerging technologies like machine learning for phishing detection and
response.
[29]
Phishing is a social engineering attack that exploits human vulnerabilities and technical
weaknesses to deceive individuals into revealing sensitive information. The study categorizes phishing into
phases, including planning, preparation, execution, and valuables acquisition. Attackers use psychological
triggers like urgency, fear, and trust to exploit victims. The study identifies various attack vectors, including
malware-based methods, DNS spoofing, and man-in-the-middle tactics. The research calls for a dual approach,
combining technical solutions with user-centric strategies. It calls for robust security systems, regular user
training, and interdisciplinary collaboration to address both technical and human factors in phishing.
[30]
Technology-centric systems use advanced methods like machine learning and neural networks to detect and
prevent phishing attempts, targeting specific attack vectors like email and websites. However, these systems
often have limitations in accuracy, especially against zero-day attacks. Human-centric approaches emphasize
user awareness and behavioral modification, using training programs, gamification, and educational initiatives.
The study also highlights gaps in addressing diverse literacy levels and evolving attack vectors. It calls for a
holistic security culture, integrating organizational policies with individual education, and addressing the
limitations of machine learning. The findings highlight the need for adaptable, multi-faceted solutions to combat
phishing threats.
[31]
A study analyzing over 25 million emails from the Australian Spam Intelligence Database
reveals that malware-laden spam is prevalent, with around 10% of URLs linked to malicious sites and 31.4% of
attachments compromised. Trojans and ransomware are the dominant malware types in these attachments. The
study also highlights the evolving techniques used by cybercriminals, such as URL shortening services and
deceptive file naming. It also highlights significant temporal fluctuations in spam activity, suggesting targeted
campaigns with specific malware payloads. The study criticizes the reactive nature of current detection methods
and advocates for a multidimensional approach that integrates machine learning-based detection with
proactive crime prevention strategies. It also stresses the need for collaboration between government agencies,
private sectors, and academic institutions to enhance cybersecurity resilience.
[32]
Email is a critical target for
cyber threats, with risks such as phishing, spoofing, spamming, malware distribution, and email bombing.
Protocols like SMTP, POP, and IMAP rely on unencrypted communications, allowing eavesdropping and
unauthorized access. Digital forensics has emerged as a vital discipline to mitigate these risks. While encryption
mechanisms like S/MIME and PGP protect email content, they are inadequate against man-in-the-middle
attacks and signature repudiation. Complementary strategies like digital signatures, hashing algorithms, and
multi-factor authentication are essential for data authenticity.
[33]
Forensic tools like metadata analysis, keyword
searches, and IP tracking are crucial for identifying and mitigating email-based threats. Advanced capabilities
like offline analysis, email clustering, and visualization are needed. A collaborative approach combining
technical innovation, organizational policies, and user education is needed to foster a secure and resilient email
communication environment.
[34]
2.2 Gap analysis of literature review
Email security and management strategies have improved, but gaps remain in addressing cyber threats and
user-centric challenges. Traditional methods like email-based systems have low delivery rates and are
susceptible to spam filters. Current technical solutions, like machine learning-based detection systems, have
limitations in accuracy against zero-day threats. Human-centric approaches fail to address varying literacy
levels and the rapid adaptation of attackers to new technologies. Emerging methodologies like deep attention
collaborative mechanisms and federated systems like CyberDart promise to enhance threat detection and
response, but computational efficiency, scalability, and user accessibility remain critical challenges. Hybrid
strategies combining diverse communication methods, personalized messaging, and enhanced remediation
support are underexplored. Interdisciplinary research is needed to merge technical solutions with behavioural
interventions. Future studies should prioritize scalability and usability of these solutions to foster a resilient
email ecosystem.
2.3 Methodology
In this work a Python-based approach is employed to automate the generation and management of email aliases,
ensuring efficiency in deployment and execution. The process commenced with user input for the primary email
address and the desired number of aliases. The script then systematically generated these aliases, which serve
as unique identifiers for account creation and communication on various platforms. This automation facilitates
privacy by enabling users to segregate their interactions and maintain organized email management. To validate
functionality, the script incorporated a mechanism to utilize the generated aliases for account signups across
specified services. Emails directed to these aliases were automatically forwarded to the user's primary inbox,
consolidating communications while preserving ease of access. This forwarding mechanism was verified using
the Simple Mail Transfer Protocol (SMTP), ensuring robust delivery and receipt of messages. Thorough testing
was conducted to confirm the reliability of alias creation, forwarding, and SMTP configurations. The process
guarantees that emails forwarded from aliases are consistently received, ensuring seamless communication. By
automating these tasks, the method significantly enhances email management, privacy, and operational
efficiency. This approach offers a scalable and secure solution for handling multiple accounts, streamlining
workflows, and mitigating risks associated with email-based interactions. The technical aspects of the
implementation of this work as explained below.
2.3.1 Implementation details
Aliases are generated using Python’s random module to create unique strings like e.g. abc123@mail.com.
Aliases follows a predefined structure based on the user's input i.e. user+tag@domain.com, leveraging Gmail
and Outlook's aliasing format. Some aliases incorporated timestamps to prevent duplication i.e.
user_20250128@mail.com. Simple Mail Transfer Protocol (SMTP) handshake verification is used to check
status of alias received messages. Test email messages are sent to each alias, and receipt confirmation is logged.
Email servers’ response codes are analyzed to determine alias functionality. Aliases are linked to primary
inboxes to confirm that messages are successfully redirected.
Sender Policy Framework (SPF) is used to prevent spoofing by verifying that emails are sent from authorized
mail servers. Domain Keys Identified Mail (DKIM) used to ensures message integrity by adding digital signatures
to outgoing emails. Domain-based Message Authentication, Reporting & Conformance (DMARC) is used to
enforces policies based on SPF/DKIM results and prevents unauthorized domain use. Transport Layer Security
(TLS) is used for encryption of emails in transit between mail servers and Secure Sockets Layer (SSL) is used
email clients to encrypt communication channels. Gmail and Outlook allow alias management via native
settings. Webmail Interfaces provides an intuitive way to switch between aliases while composing emails. In
short, aliases are tested, validated and secured using above mentioned techniques.
2.3.2 Flow of working environment
1. Open Website
2. Register Account
3. Login
4. Input Email Address for Primary Address
5. Enter the Number of Alisas to generate
6. Generate Aliasis
7. Copy the Aliasis to Use
8. The Aliasis in use are saved
9. Click history to show previous Aliasis
10. Logout
Fig. 1: Register account.
Fig. 2: Login into account.
Fig. 3: Creating of email aliases.
Fig. 4: Copying email aliases to use.
Fig. 5: Password encryption.
3. Results and discussion
Email aliasing offers numerous practical applications, enhancing privacy, workflow efficiency, brand
management, and security. Users can use aliases for distinct interactions to protect their primary email
addresses from spam, phishing, and unsolicited communications, ensuring robust privacy. Workflow
optimization is achieved through alias-based filtering and labeling, enabling users to prioritize tasks and
streamline inbox management, thereby boosting productivity. For organizations, branded aliases strengthen
brand identity, build stakeholder trust, and maintain consistent communication. Furthermore, alias-based
authentication and access restrictions reinforce security standards, mitigate unauthorized access, and facilitate
compliance and auditing. The technological implementation of email aliasing is underpinned by established
email protocols, server configurations, and client applications. SMTP facilitates message routing from sender to
recipient, while IMAP and POP3 allow recipients to retrieve messages addressed to aliases. Server-side
configurations enable administrators to create aliases and establish forwarding rules, ensuring seamless
message delivery to designated mailboxes. These configurations are managed using administrative controls,
allowing the mapping of aliases to specific recipients and applying forwarding criteria, such as domain or
message content. On the client side, users manage aliases through email client interfaces, where they can create
aliases, specify forwarding addresses, and customize settings like reply-to headers. Advanced organizational
features in email clients allow users to group aliases into folders or categories, simplifying access and enhancing
usability. By integrating practical applications with robust technical execution, email aliasing is a scalable and
efficient solution for improving privacy, security, and operational workflows across personal and organizational
contexts. This dual approach underscores its potential to address growing email traffic and evolving cyber
threats.
Email aliasing has emerged as a robust solution to enhance security, streamline communication, and provide
flexibility for individuals and organizations. Authentication and security protocols are fundamental to
safeguarding email conversations when using aliases. Techniques like SPF, DKIM, and DMARC authenticate
senders and prevent phishing or spoofing attempts. SSL and TLS encryption further secure email content, while
access controls ensure only authorized individuals can manage aliases, preventing misuse. Integrating identity
management systems and single sign-on solutions centralizes alias administration, enabling businesses to
enforce consistent security measures across platforms. One of the key benefits of email aliasing lies in its ability
to enhance privacy and security. By compartmentalizing email interactions, users shield their primary email
accounts from spam, phishing, and identity theft. Aliases can be easily updated or revoked if compromised,
minimizing risks of unauthorized access. Additionally, alias-based filtering and labeling simplify workflow
management, enabling users to prioritize and organize communications effectively. Users reduce inbox clutter
by creating project- or contact-specific aliases and ensure timely responses to critical messages. Customization
is another advantage, as aliases can reflect professional identities, preferences, or branding requirements.
Personalized aliases foster professionalism, strengthen brand awareness, and support consistent
communication with clients or stakeholders. Furthermore, email aliasing offers scalability and flexibility,
allowing users to create temporary aliases for specific purposes, such as registrations or event RSVPs, and
deactivate them when no longer needed. Despite these benefits, email aliasing poses security challenges,
including the risk of phishing and spoofing attacks. Malicious actors may exploit aliases to deceive users.
Organizations must implement robust authentication protocols to mitigate these risks and educate users on
recognizing suspicious communications. By balancing security considerations with operational efficiency, email
aliasing provides a practical, cost-effective approach to managing digital communications while safeguarding
privacy and reinforcing organizational identity.
Effective management of email aliases is essential to prevent misuse, unauthorized access, or malicious
exploitation. Implementing stringent access controls and permissions for creating, updating, and deleting
aliases ensures robust administration. Regular audits and reviews of alias settings are vital for detecting
irregularities or unauthorized changes that may indicate policy violations or security breaches. Such proactive
measures reinforce the integrity of alias management systems. Data protection and privacy compliance are
critical for email aliasing, particularly when handling sensitive information. Organizations must adhere to legal
frameworks like GDPR and HIPAA, enforcing data retention policies and utilizing encryption protocols such as
TLS to secure data in transit. These measures safeguard sensitive information and ensure compliance with
privacy regulations, fostering trust among stakeholders. Strong authentication mechanisms are indispensable
for preventing unauthorized access to email aliases. Solutions like multi-factor authentication (MFA) and single
sign-on (SSO) add layers of security, reducing the likelihood of account compromise. By requiring multiple
verification factors or centralized identity credentials, organizations can mitigate risks associated with
credential theft and unauthorized account access. Educating users about email security plays a pivotal role in
addressing vulnerabilities related to email aliasing. Comprehensive training programs should emphasize best
practices, such as recognizing phishing techniques, verifying sender identities, and maintaining secure
communication habits. Empowering users with knowledge foster a culture of vigilance and accountability,
reducing the likelihood of successful phishing attempts. Continuous monitoring of email traffic, alias
activity, and security logs enables organizations to detect and address threats promptly. Incident response
protocols should be established to investigate breaches, minimize risks, and mitigate potential damage. Rapid
identification and resolution of security issues not only protect sensitive information but also enhance
operational resilience and prevent future compromises. The existing techniques of Email aliasing are discussed
in Table 1.
Table 1: Existing email aliases.
4. Conclusion
Email aliasing has emerged as an indispensable tool in modern communication, addressing the dual challenges
of privacy and efficiency in a digital era characterized by increasing security threats and communication
complexity. This research highlights the evolution of email aliasing from rudimentary alias-based systems to
sophisticated, user-centric solutions that integrate advanced security protocols and scalable management
frameworks. By enabling the creation of virtual identities linked to a primary mailbox, email aliasing empowers
users to compartmentalize communication, enhance privacy, and streamline workflows. Implementing email
aliasing offers significant benefits for individuals and organizations alike, including improved security,
enhanced productivity, and optimized communication channels. From safeguarding sensitive information
through alias-based encryption to mitigating phishing risks with authentication protocols such as SPF, DKIM,
and DMARC, email aliasing demonstrates its potential as a robust security measure. Moreover, its versatility in
accommodating personal, role-based, generic, and disposable aliases underscores its adaptability across
diverse use cases. Effective deployment of email aliasing requires a comprehensive approach encompassing
meticulous planning, user education, and integration of advanced technologies. Organizations must prioritize
secure authentication, rigorous access controls, and compliance with privacy regulations to mitigate risks and
ensure the integrity of alias-based systems. Additionally, leveraging automated tools and third-party services
can enhance the efficiency of alias management while reducing administrative overhead. As digital
communication evolves, email aliasing remains a critical enabler of secure and efficient interactions. By
embracing its principles and addressing its challenges, individuals and organizations can harness its full
potential to foster collaboration, protect identities, and maintain resilience in an increasingly interconnected
world. Future research and innovation in this domain will further refine its capabilities, ensuring its continued
relevance in the dynamic landscape of email communication.
Funding Declaration
This research did not receive any specific grant from funding agencies in the public, commercial, or not-for-
profit sectors.
Data Availability Statement
The datasets generated and/or analyzed during the current study that support the findings are available from
the corresponding author upon reasonable request.
Conflict of Interest
There is no conflict of interest.
Artificial Intelligence (AI) Use Disclosure
The authors declare that artificial intelligence (AI)-assisted tools were used only for language refinement,
Email Alias
Description
Limitations
Gmail
A popular email service provider offering
aliasing functionality.
Limited alias creation options compared to
some other providers.
Aqua Mail
Another email service provider with
aliasing capabilities.
Requires a separate application for
managing aliases.
Yahoo Mail
Offers email aliasing functionality for users.
Limited integration with third-party
services.
Outlook
Microsoft's email service provider, which
allows users to create aliases.
May require a Microsoft account for full
functionality.
ProtonMail
A secure email service provider offering
aliasing features.
Limited to users of ProtonMail's platform.
Zoho Mail
Provides email aliasing features for users
and businesses.
Some advanced features may require a
premium subscription.
iCloud Mail
Apple's email service with aliasing
capabilities for iCloud users.
Limited integration with non-Apple
services and applications.
grammar improvement, and manuscript structuring purposes during the preparation of this work. All technical
content, experimental implementation, results, and interpretations were independently developed and verified
by the authors.
Supporting Information
Not applicable
References
[1]
M. Yin, X. Li, J. Luo, X. Li, Y. Tan, Automatically extracting name alias of user from email, International
Journal of Engineering and Manufacturing, 2011, 1, 14-24, doi: 10.5815/IJEM.2011.06.03.
[2]
S. Shukla, M. Misra, G. Varshney, Email bombing attack detection and mitigation using machine
learning, International Journal of Information Security, 2024, 23, 29392949, doi: 10.1007/s10207-
024-00871-7.
[3]
A. Venckauskas, J. Toldinas, N. Morkevicius, F. Sanfilippo, An email cyber threat intelligence method
using domain ontology and machine learning, Electronics, 2024, 13, 2716, doi:
10.3390/electronics13142716.
[4]
F. Wang, J. Tian, J. Ling, Z. Chen, Z. Xu, A multi-stage resilience analysis framework of critical
infrastructure systems based on component importance measures, Reliability Engineering System
Safety, 2025, 256, 110720, doi: 10.1016/j.ress.2024.110720.
[5]
C. Curt, J.-M. Tacnet, Resilience of critical infrastructures: review and analysis of current approaches:
resilience of critical infrastructures, Risk Analysis, 2018, 38, 2018, doi: 10.1111/risa.13166.
[6]
D. Piedrahita, J. Bermejo, F. Machio, A secure email solution based on blockchain, Blockchain and
Applications, Lecture Notes in Networks and Systems, Springer, 2022, 320, doi: 10.1007/978-3-030-
86162-9_36.
[7]
J. N. Al-Karaki, A. Gawanmeh, C. Fachkha, Blockchain for email security: a perspective on existing and
potential solutions for phishing attacks, IEEE Fifth International Conference on Blockchain Computing
and Applications (BCCA), Kuwait, 2023, doi: 10.1109/BCCA58897.2023.10338865.
[8]
R. Gupta, A. Raghuwanshi, Comparative study of email spam filtration using machine leaning
algorithms, International Journal of Science and Research, 2023, doi: 10.21275/sr23827122535.
[9]
A. K. Sharma, S. Sahni, A comparative study of classification algorithms for spam email data analysis,
International Journal on Computer Science and Engineering, 2011, 3, 1890-1895.
[10]
V. K. Devendran, H. Shahriar, V. Clincy, A comparative study of email forensic tools, Journal of
Information Security, 2025, 6, 111-117, doi: 10.4236/jis.2015.62012.
[11]
S. M. Abdulhamid, M. Shuaib, O. Osho, Comparative analysis of classification algorithms for email spam
detection, International Journal of Computer Network and Information Security, 2028, 1, 60-67, doi:
10.5815/ijcnis.2018.01.07.
[12]
T. Muralidharan, N, Nissim, Improving malicious email detection through novel designated deep-
learning architectures utilizing entire email, Neural Networks, 2023, 157, 257-279, doi:
10.1016/j.neunet.2022.09.002.
[13]
D. K. Yadav, A.Raj, Rajlakshmi, N.Kumar, R. Kumari, Enhancing email security: a real-time machine
learning-based spam detection system, Internet Technology Letters, 2024, e618, doi: 10.1002/itl2.618.
[14]
E. G. Dada, J. S. Bassi, H. Chiroma, S. M. Abdulhamid, A. O. Adetunmbi, O. E. Ajibuwa, Machine learning
for email spam filtering: review, approaches and open research problems, Heliyon, 2019, 5, e01802,
doi: 10.1016/j.heliyon.2019.e01802.
[15]
R. Fatima, M. M. Sadiq Fareed, S. Ullah, G. Ahmad, S. Mahmood, An optimized approach for detection
and classification of spam email’s using ensemble methods, Wireless Personal Communications, 2024,
139, 347373, doi: 10.1007/s11277-024-11628-9.
[16]
S. K. Birthriya, P. Ahlawat, A. K. Jain, An efficient spam and phishing email filtering approach using deep
learning and bio-inspired particle swarm optimization, International Journal of Computing and Digital
Systems, 2024, 15, doi: 10.12785/ijcds/150144.
[17]
N. Elisa, L. Yang, F. Chao, N. Naik, “TOSSAPON BOONGOEN secure and privacy-preserving e-government
framework using blockchain and artificial immunity, IEEE Access, 2023, 11, 8773-8789, doi:
10.1109/ACCESS.2023.3239814.
[18]
C. Lambrinoudakis, S. Gritzalis, F. Dridi, G. Pernul, Security requirements for e-government services: a
methodological approach for developing a common PKI-based security policy, Computer
Communications, 2003, 26, 1873-1883, doi: 10.1016/S0140-3664(03)00082-3.
[19]
F. A. Rawdhan, M. K. Ibrahim, enhancement of email security services, International Journal of Scientific
& Engineering Research, 2017, 8, 2090-2095.
[20]
S. Choudhary, R. Ghusinga, E-mail security: issues and solutions, International Journal of Computer
Information Systems, 2013, 7, 42-63.
[21]
S. K. Devineni, AI in data privacy and security, International Journal of Artificial Intelligence and Machine
Learning, 2024, 3, 35-39, doi: 10.17605/OSF.IO/WCN8A.
[22]
P. Mwiinga, Privacy-preserving technologies: balancing security and user privacy in the digital age,
International Journal of Scientific and Research Publications, 2023, doi: 10.5281/zenodo.10406538.
[23]
A. Reuter, K. Boudaoud, M. Winckler, A. Abdelmaksoud, W. Lemrazzeq, Secure Email - a usability study,
Cryptography and Security, 2021, doi: 10.48550/arXiv.2110.06019.
[24]
E. Nunes, Email security, Trends in Data Protection and Encryption Technologies, 2023, doi:
10.1007/978-3-031-33386-6_36.
[25]
M. Maass, M-P. Clement, M. Hollick, Snail mail beats email any day: on effective operator security
notifications in the internet, In Proceedings of the 16th International Conference on Availability,
Reliability and Security (ARES '21). Association for Computing Machinery, New York, USA, 2021, 11,
113, 2021, doi: 10.1145/3465481.3465743.
[26]
Y. Chen, Y. Yang, An advanced deep attention collaborative mechanism for secure educational email
services, Computational Intelligence and Neuroscience, 2022, 3150626, doi: 10.1155/2022/3150626.
[27]
S. Stryczek, M. Gwiazdowicz, J. Gozdecki, K. Kosek-Szott, N. Rapacz, J. Rzasa, CyberDART: a corporate
federation system for mitigating email threats, IEEE Access, 2024, 12, 189344-189358, doi:
10.1109/ACCESS.2024.3516657.
[28]
Y. E. Suzuki, S. A. S. Monroy, Prevention and mitigation measures against phishing emails: a sequential
schema model, Security Journal, 2022, 35, 11621182, doi: 10.1057/s41284-021-00318-x.
[29]
E. Altulaihan, A. Alismail, M. M. Hafizur Rahman, A. A. Ibrahim, Email security issues, tools, and
techniques used in investigation, Sustainability, 2023, 15, 1-28, 2023, doi: 10.3390/su151310612.
[30]
Z. Alkhalil, C. Hewage, L. Nawaf, Imtiaz A. Khan, Phishing attacks: a recent comprehensive study and a
new anatomy, Frontiers in Computer Science, 2021, 3, doi: 10.3389/fcomp.2021.563060.
[31]
B. Naqvi, K. Perova, A. Farooq, I. Makhdoom, S. Oyedeji, J. Porras, Mitigation strategies against the
phishing attacks: A systematic literature review, Computer & Security, 2023, 132, doi:
10.1016/j.cose.2023.103387.
[32]
R. Broadhurst, H. Trivedi, Malware in spam email: risks and trends in the Australian Spam Intelligence
Database, Trends & Issues in Crime and Criminal Justice, 2020, 603, 2020, doi: 10.52922/ti04657.
[33]
R. G. Broadhurst, H. Trivedi, Malware in spam email: trends in the 2016 australian spam intelligence
data, SSRN Electronic Journal, 2019, doi: 10.2139/ssrn.3413442.
[34]
F. Janez-Martino, R. Alaiz, V. Gonz lez-Castr, E. Fidalgo, E. Alegre, A review of spam email detection:
analysis of spammer strategies and the dataset shift problem, Artificial Intelligence Review, 2022, 56,
doi: 10.1007/s10462-022-10195-4.
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