Research

Goal and Objectives or brief

The research group aims to leverage cutting-edge computational methods to address critical challenges in health care. We focus on developing advanced techniques for medical image segmentation, explore innovative methods for medical image reconstruction, address disease classification issues by employing machine learning models for accurate diagnosis and prognosis. We also work on developing predictive models using AI techniques to identify risk factors for chronic diseases by integrating and analyzing multi-modal data.

Deep  Neural  Networks(DNN) have become popular for various applications in the domain of image and computer vision due to their well-established performance attributes. DNN algorithms involve powerful multilevel feature extractions resulting in an extensive range of parameters and memory footprints. However, memory bandwidth requirements, memory footprint and the associated power consumption of models are issues to be addressed to deploy DNN models on embedded platforms for real time vision-based applications. We use transfer learning approach to propose resource optimized architecture for porting on to edge devices.

Research
Research

Video classification is used in fields such as surveillance, entertainment, and autonomous driving. Video classification models pose challenges for deployment on resource-constrained devices and this study focuses on optimising Deep Neural Networks (DNN) for computation and memory-efficient video classification. DNN models are optimised using an approach called Stripe-Wise-Pruning (SWP) SWP is a parameter removal method that selectively removes stripes within the filters in the convolutional layers of DNNs based on their importance. In order to maximise computational and memory efficiency, the SparPen optimizer is used with SWP. Key findings of this study indicate that SWP significantly reduces the computational cost and memory utilisation of DNN-based video classification models without compromising their accuracy.

Research

With the intervention of human beings, it is challenging for businesses to verify that the product is appropriately created without any glitches, as this could result in human errors due to a lack of training, which could further cause losses and several complications. Thus, there is a need for a machine learning-based solution that improves work efficiency and accuracy in identifying processed and unprocessed parts. This can help organizations improve their operations and achieve better outcomes. Deep Neural Networks have become a standard method for image classification, object detection, real-time processing capabilities, and other computer vision tasks. We have designed an optimized architecture that deployed on a Raspberry Pi and integrated with the assembly line to carry out the task of validating the processed parts.

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info@kletech.ac.in

coe@kletech.ac.in (Controller of Examinations)