SPECIAL
ISSUE TITLE Federated Learning For Collaborative Fraud Detection In
Large-Scale Networks |
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Summary: Throughout recent times, fraud
involving credit cards has prompted institutions and customers to generate a
great deal of revenue. In order to reduce the loss for businesses and
customers, an efficient Fraud Detection System (FDS) is essential. A viable
option that could deal with networking expenses, data security, and isolation
challenges and is attracting major interest is Federated Learning (FL). The
most distinctive feature of FL is that each device's local training dataset
stays on the device; rather, every device computes a local model modification
on its own and sends the information to a single server, which then combines
all of the customers regional updates to develop the model globally
constantly. Fraud involving credit cards has grown increasingly common in
today's generation, and with the rise in internet crimes, numerous instances
have already been documented in earlier times. While there are many methods
available for identifying credit card fraud occurring online, completely
online and federated learning approaches are particularly effective in
identifying fraudulent activity. The analysis indicates there are many
more instances of fraudulent transactions than authorized activities in the
charge card transaction dataset, which is highly biassed. Furthermore,
sharing transaction information across banks is typically prohibited owing to
data security and privacy concerns. Due to these issues, FDS finds it
challenging to identify and understand trends in fraud. A delay in processing
a credit card payment online could result in an unbearable expense and open
an invitation to scammers. Therefore, it is crucial to have an online FDS
that can handle time constraints and is capable of quickly identifying
fraudulent activity. It is advisable to think about developing an effective
fraud detection system that operates quickly enough to be applied in a
real-time setting. Innovative structures are becoming more habitable,
cost-effective, and sustainable due to the widespread use of Internet of
Things (IoT) sensors. These sensors pick up environmental information and
provide multidimensional temporal data that is critical for identifying
irregularities and enhancing predictive utilization forecasting. However, a
significant reaction-time lag frequently prevents these abnormalities from
being detected in centralized systems. In order to get around this obstacle,
the fraud detection challenge in a federated learning environment using the
multitasking learning paradigm leverages patterns and disparities through
tasks to solve numerous tasks at once. The special issue employs several
unsupervised learning algorithms, including an automated encoder, deployed
over a federated learning framework to anticipate the extent of fraudulent
credit card users. The number of fraudulent users is determined using
transactions from a charge card dataset. The anarchic federated learning
system is compared with the centralized technique. List of Interested topics include, but are not limited to, the
following:
A
federated learning-oriented technique for financing fraud detection.
Bank
fraud detection employing a federated learning model and data maintaining
approaches.
Determining
Data Fraud Detection using Collaborative Visualisation in Federated Learning.
An
Intelligent Network-Based Approach to Identifying Fraud in Compensation
Claims.
A
Perceptive Network-Oriented Method for Recognising Fraud in Employment
Allegations.
Potentially
private encrypted multi-party computing for banking services using federated
learning.
Moving
towards federated network analysis for cooperative detection of financial
offences.
Safeguarding
Privacy while Identifying Financial Anomalies with Federated Learning.
Federated
learning-based cooperative a pattern detection for the worldwide web of
things.
A
decentralised federated learning system with commission approval based on
cryptocurrency.
Federated-learning
oriented cryptocurrency IoMT system for medical with fraud-enabled privacy
protection. Special Issue Guest Editors: Dr. Mahmud Iwan Solihin Associate Professor at Faculty of Engineering, UCSI University, Malaysia. Email id: mahmudis@ucsiuniversity.edu.my, mahmud.iwan@proton.me Google Scholar Link: https://scholar.google.com.my/citations?user=BlBZJPUAAAAJ Dr. Lin Guoping Professor of Department of Engineering, Department of Industrial Engineering and Enterprise Information,
Tunghai University, Taiwan. Email id: kplin@thu.edu.tw Google Scholar Link: https://scholar.google.co.uk/citations?user=OyWUYLAAAAAJ Dr. Slamet Riyadi Associate Professor, Department of Information Technology, Universitas Muhammadiyah Yogyakarta, Indonesia. Email id: riyadi@umy.ac.id Google Scholar Link: https://scholar.google.com/citations?user=bl1BHx8AAAAJ&hl=en Deadlines: Article Submission Deadline - [10.08.2024] Authors Notification Date - [20.10.2024] Revised Papers Due Date - [25.12.2024] Final notification Date - [20.02.2025] |
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