Arivazhagan Selvaraj

dblp:252/8480 · also S. Arivazhagan 0001, Selvaraj Arivazhagan · DBLP profile ↗
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36ranked-venue papers
13as first author
22since 2021 · last 2026
0000-0002-2579-501XORCID · verified

Domains — the database's venue-derived domains; a paper can count in several

Artificial intelligence and machine learning · 25 · 8 first-author · 14 since 2021Graphics, computer vision, multimedia, augmented reality and games · 10 · 4 first-author · 8 since 2021Applied, interdisciplinary, general and emerging computing · 1 · 1 first-author
YearPublicationVenuePosition
2026 StegWaveGAN - a secure image steganography technique by using discrete wavelet transform features in generative adversarial networks
Amrutha Ezhilarasan, Arivazhagan Selvaraj, Shanmuga Priya R, B. Revathi
Neural Comput. Appl.2
2025 Two stream CNN for muzzle print recognition using gabor filters
Newlin Shebiah Russel, Arivazhagan Selvaraj
Multim. Tools Appl.2
2024 MultiScaleCrackNet: A parallel multiscale deep CNN architecture for concrete crack classification
Newlin Shebiah Russel, Arivazhagan Selvaraj
Expert Syst. Appl.2
2024 Ownership of abandoned object detection by integrating carried object recognition and context sensing
Newlin Shebiah Russel, Arivazhagan Selvaraj
Vis. Comput.2
2023 Crack recognition on concrete structures based on machine crafted and hand crafted features
Ramar Ahila Priyadharshini, Arivazhagan Selvaraj, Madakannu Arun
Expert Syst. Appl.2
2023 Deep Clustering Network for Steganographer Detection Using Latent Features Extracted from a Novel Convolutional Autoencoder
Amrutha Ezhilarasan, Arivazhagan Selvaraj, W. Sylvia Lilly Jebarani
Neural Process. Lett.2
2023 CEDRNN: A Convolutional Encoder-Decoder Residual Neural Network for Liver Tumour Segmentation
Arivazhagan Selvaraj, Emerson Nithiyaraj
Neural Process. Lett.1
2023 Novel color image steganalysis method based on RGB channel empirical modes to expose stego images with diverse payloads
Amrutha Ezhilarasan, Arivazhagan Selvaraj, W. Sylvia Lilly Jebarani
Pattern Anal. Appl.2
2023 Parallel deep learning architecture with customized and learnable filters for low-resolution face recognition
Faris A. Kateb, Newlin Shebiah Russel, Arivazhagan Selvaraj, Seyed Mohamed Buhari
Vis. Comput.3
2022 A unified feature descriptor for generic character recognition based on zoning and histogram of gradients
Madakannu Arun, Arivazhagan Selvaraj
Neural Comput. Appl.2
2022 CTSC-Net: an effectual CT slice classification network to categorize organ and non-organ slices from a 3-D CT image
Emerson Nithiyaraj, Arivazhagan Selvaraj
Neural Comput. Appl.2
2022 Robust affect analysis using committee of deep convolutional neural networks
Newlin Shebiah Russel, Arivazhagan Selvaraj
Neural Comput. Appl.2
2022 Leaf species and disease classification using multiscale parallel deep CNN architecture
Newlin Shebiah Russel, Arivazhagan Selvaraj
Neural Comput. Appl.2
2022 MixNet: A Robust Mixture of Convolutional Neural Networks as Feature Extractors to Detect Stego Images Created by Content-Adaptive Steganography
Amrutha Ezhilarasan, Arivazhagan Selvaraj, W. Sylvia Lilly Jebarani
Neural Process. Lett.2
2022 Infrared and visible image fusion via multi-scale multi-layer rolling guidance filter
Prema Ganesan, Arivazhagan Selvaraj
Pattern Anal. Appl.2
2022 Universal steganalysis of spatial content-independent and content-adaptive steganographic algorithms using normalized feature derived from empirical mode decomposed components
Arivazhagan Selvaraj, Amrutha Ezhilarasan, W. Sylvia Lilly Jebarani
Signal Process. Image Commun.1
2022 Human palm vein authentication using curvelet multiresolution features and score level fusion
G. Ananthi, J. Raja Sekar, Arivazhagan Selvaraj
Vis. Comput.3
2021 A deep learning approach for person identification using ear biometrics
Ramar Ahila Priyadharshini, Arivazhagan Selvaraj, Madakannu Arun
Appl. Intell.2
2021 Gender discrimination, age group classification and carried object recognition from gait energy image using fusion of parallel convolutional neural network
abstract
Abstract Age and gender are the two key attributes for healthy social interactions, access control, intelligence marketing etc. Likewise, carried object recognition helps in identifying owner of the baggage being abandoned or the person littering in the public places. The above‐mentioned surveillance task displays discriminative characteristics in gait. Primates can accomplish scene context understanding and reacting to different circumstances with varying reflexes with ease. Human beings achieve this by recollecting prior experiences and adapting to new situations quickly. Modelling the human behaviour, this research work has combined customized and learnable filters so that knowledge database can always be kept up to date, as well as, provides flexibility in learning new contexts. Thus, a specialized parallel deep convolutional neural network architecture with customized filters that extracts intrinsic characteristics and data driven learnable filters are fused to enhance the performance of single convolutional neural network is proposed. From the experimentation it is observed that, the learning is augmented when customized filters and learnable filters are fused together. Results show that the proposed system achieves better performance for CASIA B datAQ2abase and OU‐ISIR gait database‐large population dataset with age and real‐life carried object.
Newlin Shebiah Russel, Arivazhagan Selvaraj
IET Image Process.2
2021 Digital image steganalysis: A survey on paradigm shift from machine learning to deep learning based techniques
abstract
Abstract Steganography, a branch of data hiding techniques aims to hide confidential information within any digital media by obscuring the existence of hidden information. On the contrary, steganalysis aims to detect steganography. With the advent of powerful steganographic algorithms, the process of cracking them became very challenging. Traditional steganalysis following machine learning principle employs a two‐step process, with first process extracting highly sophisticated features capable of discriminating hidden message from original data and second process classifying the input as innocent or guilty. In recent years, deep learning which has its roots in artificial neural networks emerged as a brilliant alternative for many computer vision tasks. A review of recent research works in deep learning based digital image steganalysis is presented here. The paradigm shift from machine learning approaches to employing more promising deep learning architectures, observed with the current research community and hence in literature has been presented here in chronological order. Deep learning can unify the two‐step process into a single process by giving the ability for machine to learn end‐to‐end by itself. The use of Convolutional Neural Networks to perform steganalysis in spatial or transform or combination of both domains has effectively lowered the detection error rates.
Arivazhagan Selvaraj, Amrutha Ezhilarasan, W. Sylvia Lilly Jebarani, Ananthi Roy Sam
IET Image Process.1
2021 Fusion of spatial and dynamic CNN streams for action recognition
Newlin Shebiah Russel, Arivazhagan Selvaraj
Multim. Syst.2
2021 Hybrid convolutional neural network architecture driven by residual features for steganalysis of spatial steganographic algorithms
Arivazhagan Selvaraj, Amrutha Ezhilarasan, W. Sylvia Lilly Jebarani, S. T. Veena
Neural Comput. Appl.1
2020 Infrared and visible image fusion using multi-scale NSCT and rolling-guidance filter
abstract
Image fusion is essential to produce a complementary and comprehensive image, with the source images derived from different sensors, captured from different illumination conditions. In this study, a novel multi‐scale image fusion based on the combination of non‐subsampled contourlet transform (NSCT) and rolling‐guidance filter (RGF) is used to enhance the edges and texture details better than the conventional methods. Initially, infrared (IR) and visible (VIS) source images are multi‐scale decomposed to low‐frequency and high‐frequency sub‐band coefficients by NSCT for the best representation of edges and curves. Further, the low‐frequency coefficients are decomposed into the base and detail layers by a combination of RGF and GF (Gaussian filter) to retain the features in multiple scales and to reduce halos near the edges. Base layers are fused by saliencybased fusion rule and detail layers are fused by Max absolute rule. High‐frequency coefficients are fused by consistency verification based fusion rule to preserve visual details and to suppress noise from source images. Finally, the image is reconstructed by inverse NSCT with good visual perception. Experimental results are evaluated by different evaluation metrics and the results suggest that the proposed method results with better improved source information, clarity and contrast.
Arivazhagan Selvaraj, Prema Ganesan
IET Image Process.1
2020 DIGI-Net: a deep convolutional neural network for multi-format digit recognition
Madakannu Arun, Arivazhagan Selvaraj
Neural Comput. Appl.2
2019 Versatile loitering detection based on non-verbal cues using dense trajectory descriptors
Arivazhagan Selvaraj, Newlin Shebiah Russel
Multim. Tools Appl.1
2019 Maize leaf disease classification using deep convolutional neural networks
Ramar Ahila Priyadharshini, Arivazhagan Selvaraj, Madakannu Arun, Annamalai Mirnalini
Neural Comput. Appl.2
2018 Quantitative steganalysis of spatial LSB based stego images using reduced instances and features
S. T. Veena, Arivazhagan Selvaraj
Pattern Recognit. Lett.2
2013 Iris Recognition using Combined Statistical and Co-Occurrence Multi-Resolutional Features
abstract
Iris recognition is one of the most reliable personal identification methods. This paper presents a novel algorithm for iris recognition encompassing iris segmentation, fusion of statistical and co-occurrence features extracted from the curvelet and ridgelet transformed images. In this work, the pupil and iris boundaries are detected by using the equation of circle from three points on its circumference. Using Canny edge detection, the iris radius value is empirically chosen based on rigorous experimentation. Eyelash removal is done by using a horizontal 1-D rank filter. Iris normalization is done by mapping the detected iris region from the polar domain to the rectangular domain and the multi-resolution transforms such as curvelet and ridgelet transforms are applied for multi-resolutional feature extraction. The classification is done using Manhattan distance (Md) and multiclass classifier with logistic function and the two results are compared. Here, the benchmark database CASIA-IRIS-V3 (Interval) is used for identification and recognition. It is observed that the ridgelet transform increases the iris recognition rate.
J. Raja Sekar, Arivazhagan Selvaraj, S. Shobana Priyadharshini, S. Shunmugapriya
Int. J. Pattern Recognit. Artif. Intell.2
2011 A Novel Approach to Low Volume Generic Steganalysis
abstract
Generic Steganalysis aims to detect the presence of covert communication by identifying the given test data as stego / cover media. Thresholded adjacent pixel differences using different scan paths have been used to highlight feeble embedding artifacts created out of a low rate embedding process. The scan paths normally made use of in the embedding process have been utilized for a steganalytic scheme. A co occurrence matrix derived from thresholded adjacent pixel differences serves as the feature vector aiding detection of stego images carrying very minimal payloads.
Arivazhagan Selvaraj, W. Sylvia Lilly Jebarani, M. Shanmugaraj
ICSEng1
2009 Editorial: Applications of Computational Intelligence
Henry Selvaraj, Arivazhagan Selvaraj
Int. J. Comput. Intell. Appl.2
2007 Multi-resolution system for artifact removal and edge enhancement in computerized tomography images
Arivazhagan Selvaraj, S. Deivalakshmi, B. N. Gajbhiye, C. Muralidhar, Sijo N. Lukose, M. P. Subramanian
Pattern Recognit. Lett.1
2006 Fault segmentation in fabric images using Gabor wavelet transform
Arivazhagan Selvaraj, S. Bama
Mach. Vis. Appl.1
2006 Texture classification using ridgelet transform
Arivazhagan Selvaraj, T. G. Subash Kumar
Pattern Recognit. Lett.1
2006 Texture classification using Gabor wavelets based rotation invariant features
Arivazhagan Selvaraj, S. Padam Priyal
Pattern Recognit. Lett.1
2003 Texture classification using wavelet transform
Arivazhagan Selvaraj
Pattern Recognit. Lett.1
2003 Texture segmentation using wavelet transform
Arivazhagan Selvaraj
Pattern Recognit. Lett.1