Modern software development demands rapid delivery with continuous integration, making intelligent testing essential
for maintaining quality. Traditional automation tools like Selenium and JUnit execute all test cases without prioritization,
resulting in resource inefficiency and longer testing cycles. To address this, AI-based intelligent frameworks are emerging that
dynamically optimize test execution by predicting critical areas and prioritizing impactful tests based on historical results.
The project aims to design and implement an intelligent web application testing framework that automates functional testing
while learning from past results to enhance efficiency. It employs AI-based models to prioritize and optimize test case execution,
provides visual analytics on performance trends, and supports seamless integration with CI/CD tools like Jenkins and GitHub
Actions. This framework offers developers and testers a scalable, adaptive, and data-driven solution for smarter and faster
software testing.
Existing frameworks like Selenium, JUnit, and TestNG offer robust automation but lack intelligent test prioritization. Key
limitations include redundant execution of stable tests, extended testing time, high maintenance overhead, absence of AI-driven
optimization, and limited analytical insights. These gaps highlight the need for AI-powered automation solutions that enhance
efficiency, reduce redundancy, and support data-driven test management.
The proposed framework integrates AI-assisted test case optimization with automated web testing. Key features include
automated Selenium-based test execution, AI-driven prioritization using historical data, dynamic adjustment of test order, a
result visualization dashboard, and seamless CI/CD integration. This approach reduces redundant tests, enhances coverage, and
accelerates feedback, enabling faster and more reliable software releases
Amireddy Sainath Reddy, N. N. Kumar· International Journal for Re...· 0 citations
Facial recognition systems are widely used for identity verification but are vulnerable to face morphing attacks, where
multiple facial images are blended to form a deceptive identity that can fool recognition models. This project develops a deep
learning-based approach to detect such attacks and strengthen biometric authentication systems.
It lies in the domain of Artificial Intelligence and Machine Learning, focusing on Computer Vision techniques to differentiate
real and morphed facial images for accurate and secure verification.
The project involves creating realistic morphed face datasets and building an efficient detection model applicable to border
control, ID verification, and digital authentication.
Current systems fail against high-quality morphs produced using advanced tools, showing reduced accuracy under variations in
lighting, age, and facial accessories.
To overcome this, the proposed model combines deep learning-based feature extraction with machine learning classifiers.
Morph-2 and Morph-3 datasets are generated using professional morphing tools, and image enhancement with feature fusion is
applied to improve accuracy and robustness.
Mekala Pooja, N. N. Kumar· International Journal for Re...· 0 citations