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409 results on '"Palani A"'

1. NTIRE 2024 Challenge on Image Super-Resolution (×4): Methods and Results.

Author

Zheng Chen 0014, Zongwei Wu, Eduard Zamfir, Kai Zhang 0008, Yulun Zhang 0001, Radu Timofte, Xiaokang Yang, Hongyuan Yu, Cheng Wan 0006, Yuxin Hong, Zhijuan Huang, Yajun Zou, Yuan Huang, Jiamin Lin, Bingnan Han, Xianyu Guan, Yongsheng Yu, Daoan Zhang, Xuanwu Yin, Kunlong Zuo, Jinhua Hao, Kai Zhao, Kun Yuan, Ming Sun 0008, Chao Zhou 0003, Hongyu An, Xinfeng Zhang 0002, Zhiyuan Song, Ziyue Dong, Qing Zhao, Xiaogang Xu, Pengxu Wei, Zhi-Chao Dou, Gui-Ling Wang, Chih-Chung Hsu, Chia-Ming Lee, Yi-Shiuan Chou, Cansu Korkmaz, A. Murat Tekalp, Yubin Wei, Xiaole Yan, Binren Li, Haonan Chen, Siqi Zhang, Sihan Chen, Amogh Joshi 0001, Nikhil Akalwadi, Sampada Malagi, Palani Yashaswini, Chaitra Desai, Ramesh Ashok Tabib, Ujwala Patil, Uma Mudenagudi, Anjali Sarvaiya, Pooja Choksy, Jagrit Joshi, Shubh Kawa, Kishor P. Upla, Sushrut Patwardhan, Raghavendra Ramachandra, Sadat Hossain, Geongi Park, S. M. Nadim Uddin, Hao Xu, Yanhui Guo, Aman Urumbekov, Xingzhuo Yan, Wei Hao, Minghan Fu, Isaac Orais, Samuel Smith, Ying Liu, Wangwang Jia, Qisheng Xu, Kele Xu, Weijun Yuan, Zhan Li 0004, Wenqing Kuang, Ruijin Guan, Ruting Deng, Zhao Zhang 0001, Bo Wang 0011, Suiyi Zhao, Yan Luo, Yanyan Wei, Asif Hussain Khan, Christian Micheloni, and Niki Martinel

Published
2024
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2. The Ninth NTIRE 2024 Efficient Super-Resolution Challenge Report.

Author

Bin Ren, Yawei Li, Nancy Mehta, Radu Timofte, Hongyuan Yu, Cheng Wan, Yuxin Hong, Bingnan Han, Zhuoyuan Wu, Yajun Zou, Yuqing Liu, Jizhe Li, Keji He, Chao Fan, Heng Zhang, Xiaolin Zhang, Xuanwu Yin, Kunlong Zuo, Bohao Liao, Peizhe Xia, Long Peng, Zhibo Du, Xin Di, Wangkai Li, Yang Wang, Wei Zhai, Renjing Pei, Jiaming Guo, Songcen Xu, Yang Cao, Zhengjun Zha, Yan Wang, Yi Liu, Qing Wang, Gang Zhang, Liou Zhang, Shijie Zhao, Long Sun, Jinshan Pan, Jiangxin Dong, Jinhui Tang 0001, Xin Liu, Min Yan, Qian Wang, Menghan Zhou, Yiqiang Yan, Yixuan Liu, Wensong Chan, Dehua Tang, Dong Zhou, Li Wang, Lu Tian, Emad Barsoum, Bohan Jia, Junbo Qiao, Yunshuai Zhou, Yun Zhang, Wei Li, Shaohui Lin, Shenglong Zhou 0002, Binbin Chen, Jincheng Liao, Suiyi Zhao, Zhao Zhang, Bo Wang, Yan Luo, Yanyan Wei, Feng Li, Mingshen Wang, Jinhan Guan, Dehua Hu, Jiawei Yu, Qisheng Xu, Tao Sun, Long Lan, Kele Xu, Xin Lin, Jingtong Yue, Lehan Yang, Shiyi Du, Lu Qi, Chao Ren, Zeyu Han, Yuhan Wang, Chaolin Chen, Haobo Li, Mingjun Zheng, Zhongbao Yang, Lianhong Song, Xingzhuo Yan, Minghan Fu, Jingyi Zhang, Baiang Li, Qi Zhu, Xiaogang Xu, Dan Guo, Chunle Guo, Jiadi Chen, Huanhuan Long, Chunjiang Duanmu, Xiaoyan Lei, Jie Liu, Weilin Jia, Weifeng Cao, Wenlong Zhang, Yanyu Mao, Ruilong Guo, Nihao Zhang, Manoj Pandey, Maksym Chernozhukov, Giang Le, Shuli Cheng, Hongyuan Wang, Ziyan Wei, Qingting Tang, Liejun Wang, Yongming Li, Yanhui Guo, Hao Xu, Akram Khatami-Rizi, Ahmad Mahmoudi-Aznaveh, Chih-Chung Hsu, Chia-Ming Lee, Yi-Shiuan Chou, Amogh Joshi 0001, Nikhil Akalwadi, Sampada Malagi, Palani Yashaswini, Chaitra Desai, Ramesh Ashok Tabib, Ujwala Patil, and Uma Mudenagudi

Published
2024
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3. NTIRE 2024 Dense and Non-Homogeneous Dehazing Challenge Report.

Author

Codruta O. Ancuti, Cosmin Ancuti, Florin-Alexandru Vasluianu, Radu Timofte, Yidi Liu, Xingbo Wang, Yurui Zhu, Gege Shi, Xin Lu 0006, Xueyang Fu, Zheng-Jun Zha, Wei Dong 0010, Han Zhou 0003, Ruiyi Wang, Xiaohong Liu 0001, Guangtao Zhai, Jun Chen 0005, Wei Song, Yichang Gao, Jiahao Xiong, Hualiang Lin, Xianger Li, Dong Li, Mohab Kishawy, Ruibin Li, Seyed Amirreza Mousavi, Rana Rauf, Yangyi Liu, Huan Liu 0014, Mingsheng Tu, Kele Xu, JiaWen Chen, Qisheng Xu, Tao Sun, Jin Guo, Ben Shao, Tianli Liu, Mohao Wu, Xingzhuo Yan, Minghan Fu, Lehan Yang, Xin Lin, Lu Qi, Jincen Song, Xiaoqian Hu, Linwei Tao, Hongming Chen 0004, Xiang Chen 0015, Chuanlong Xie, Zhao Zhang 0001, Junhu Wang, Yanyan Wei, Suiyi Zhao, Shengeng Tang, Sampada Malagi, Amogh Joshi 0001, Nikhil Akalwadi, Chaitra Desai, Ramesh Ashok Tabib, Uma Mudenagudi, Wenjing Jiang, Jagadeesh Kalyanshetti, Vijayalaxmi Ashok Aralikatti, Palani Yashaswini, Nitish Upasi, Dikshit Hegde, Ujwala Patil, and Sujata C

Published
2024
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4. NTIRE 2024 Challenge on Low Light Image Enhancement: Methods and Results.

Author

Xiaoning Liu 0003, Zongwei Wu, Ao Li 0007, Florin-Alexandru Vasluianu, Yulun Zhang 0001, Shuhang Gu, Le Zhang 0001, Ce Zhu, Radu Timofte, Zhi Jin, Hongjun Wu, Chenxi Wang, Haitao Ling, Yuanhao Cai, Hao Bian, Yuxin Zheng, Jing Lin, Alan L. Yuille, Ben Shao, Jin Guo, Tianli Liu, Mohao Wu, Yixu Feng, Shuo Hou, Haotian Lin 0005, Yu Zhu 0004, Peng Wu, Wei Dong 0010, Jinqiu Sun, Yanning Zhang, Qingsen Yan, Wenbin Zou, Weipeng Yang, Yunxiang Li, Qiaomu Wei, Tian Ye 0001, Sixiang Chen, Zhao Zhang 0001, Suiyi Zhao, Bo Wang 0011, Yan Luo, Zhichao Zuo, Mingshen Wang, Junhu Wang, Yanyan Wei, Xiaopeng Sun, Yu Gao, Jiancheng Huang, Hongming Chen 0004, Xiang Chen 0015, Hui Tang, Yuanbin Chen, Yuanbo Zhou, Xinwei Dai, Xintao Qiu, Wei Deng, Qinquan Gao, Tong Tong 0001, Mingjia Li, Jin Hu, Xinyu He, Xiaojie Guo, Sabarinathan, K. Uma, A. Sasithradevi, B. Sathya Bama 0001, S. Mohamed Mansoor Roomi, V. Srivatsav, Jinjuan Wang, Long Sun, Qiuying Chen, Jiahong Shao, Yizhi Zhang, Marcos V. Conde, Daniel Feijoo, Juan C. Benito, Alvaro García, Jaeho Lee, Seongwan Kim, Sharif S. M. A, Nodirkhuja Khujaev, Roman Tsoy, Ali Murtaza, Uswah Khairuddin, Ahmad 'Athif Mohd Faudzi, Sampada Malagi, Amogh Joshi 0001, Nikhil Akalwadi, Chaitra Desai, Ramesh Ashok Tabib, Uma Mudenagudi, Wenyi Lian, Wenjing Lian, Jagadeesh Kalyanshetti, Vijayalaxmi Ashok Aralikatti, Palani Yashaswini, Nitish Upasi, Dikshit Hegde, Ujwala Patil, Sujata C, Xingzhuo Yan, Wei Hao, Minghan Fu, Pooja Choksy, Anjali Sarvaiya, Kishor P. Upla, Kiran B. Raja, Hailong Yan, Yunkai Zhang, Baiang Li, Jingyi Zhang, and Huan Zheng

Published
2024
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37. Performance analysis of threshold based renovation mechanism in sintering process using queueing theoretic approach.

Author

Niranjan, Palani, Krishnasamy, Elavarasan, Krishnasamy, Karthik, and Velumayil, Ramesh

Abstract

Effective service management and energy saving play an important role in sintering process and service management. Bulk components are received from various user for sintering process which follows Poisson distribution. Available components are put together into sintering furnace to make objects. Sintering furnace can able to hold minimum fixed threshold value of 'a′ and maximum fixed threshold value of 'b′ number of components. To minimize the operating cost, the sintering process will be started only when minimum of 'a′ components are waiting for service. After the process begins, multiple batches of bulk operations must be carried out consecutively to avoid a rise in operational costs. A general distribution of the processing time is assumed. Continuously operating the sintering furnace may result in server failure or production of defective items. Addressing this the operator of the machine may fix some threshold value for number of times the sintering process has to be done continuously without defectives. This threshold value may help the machine to undergo with renovation works. The paper primarily focused to obtain the number of successive service to undergo renovation works which may improve the efficiency of sintering furnace. To reduce the mean cost of the sintering process, optimal cost analysis will be performed. By implementing queueing theoretic approach for sintering process to probability function that generates the number of components waiting for sintering process at arbitrary time is derived by applying a method called supplementary variable techniques. Additionally, a number of sintering process performance parameters will be calculated and appropriately illustrated numerically. [ABSTRACT FROM AUTHOR]

Published
2024
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38. Survey on enhancing the physiochemical properties of organic and inorganic compounds using shockwave applications.

Author

Jayaraj, Jeba Priyadarshini, Krishnan, Naren Shankar Radha, Maji, Saptarshi, Sekaran, Kevin Bennett Sundara, Palani, Mohanraj, Devaraj, Barath Raj, and Sekar, Jeyan

Abstract

Shockwave are defined as nonlinear pressure waves propagating at supersonic speeds. The first shock wave technology was developed in 1990s, which used explosives and electric current to generate shock. Modern shock generation methods include hypersonic shock tunnels and shock tubes, which are used extensively in the fields of medicine (treatment of kidney stones), biological sciences (bacterial transformation), agriculture (improved processing of crops), oil extraction (increasing yield), food industry (meat tenderization, juice extraction), material processing (property improvement in nano particles), and manufacturing. The objective of this paper is to conduct an overview of the applications of shockwaves specifically in three areas such as materials processing, nanotechnology, medicine, oil extraction and bioscience. Oil, nanoparticles, solid, liquids, grains, meats, agricultural products are few reviewed samples which are exposed to shock waves. Shock waves has an impact in physical, chemical, thermal, mechanical, electrical and thermodynamic properties. Using shock waves as a pre-treatment process was also analyzed. Shock waves also has an impact in varying the structure, texture, color, smell, solubility, morphology and molecular behavior of the organic and inorganic compounds. Techniques like ultrasound, UV spectroscopy, SEM, TEM, XRD, ORAC assay are used to study the Shockwave treated samples for obtaining the results. The results obtained are compared with the results obtained from the sample before shock application. [ABSTRACT FROM AUTHOR]

Published
2024
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39. Study and analysis of exhaust gas calorimeter of four stroke diesel engine using computational fluid dynamics.

Author

Kannan, Raja, Kudiyirican, Joseph Benny, Selvam, Amala Justus, and Palani, Sathyaseelan

Abstract

It is widely agreed, both among historians and scholars alike, that the internal combustion engine (ICE) is arguably the most notable technological breakthroughs of the 19th century. It paved the way for the automobile and transportation industries as we know them today. Over the course of time, IC engines have undergone tremendous changes with significant improvements in their performance, efficiency, and reliability. One of the key parameters of an IC engine is its operating temperature. It is very much crucial to maintain the temperature of the engine at a certain threshold to ensure its smooth and continuous operation without causing damage to its internal as well as external components. This can be accomplished through the use of an Exhaust Gas Calorimeter. Hence, the purpose of this study is to modify an exhaust gas calorimeter and perform analysis on the same in order to improve its heat transmission. Both the necessary modifications and analysis are performed with the aid of SolidWorks and ANSYS software, respectively. [ABSTRACT FROM AUTHOR]

Published
2024
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40. Total boundary dominating set in graphs.

Author

Murugan, G. Palani, Angaleeswari, K., Sundareswaran, R., and Swaminathan, V.

Subjects
GRAPH connectivity, UNDIRECTED graphs, BORDER security, EQUATIONS, SOCIAL dominance, DOMINATING set
Abstract

The inquiry is predicated on the premise that X is a simple, finite, undirected connected graph. Being members of the set A(퐺), 푙 and 푎 are objects in the set 푉,퐺 when 퐺 is the set of vertices. For every 푤 in the set (푎), 푎 is a boundary vertex of whenever the set of 푑,, is less than or equal to 푑(푙,푎). If X is the border that is closest to you, then you are said to be a boundary neighbour of X. In a graph, the dominating vertex is the one that lies on the vertex's boundary. The sole condition that has to be met for a vertex in 푊 to dominate all vertex in 푀−푆 is for every vertex in 푊 to be a boundary in (퐺). 푽 functions as a vertex on the border of 푙 for every 푽 in the set 푀−푆. By utilising the symbol 훾-푏.(퐺), the minimum cardinality of a boundary dominating set, denoted by the letter 퐺, can be found. This specific number is associated with a group that is in charge of border control. The symbol -C represents the set's highest cardinality (C). This is the symbol for the minimal border dominating set. Every subset 퐷 of J(퐺) is called a full boundary dominating set of 퐺 itself if and only if every 푽 in J(퐺) has a 푙 in 퐷. The total border dominance number is represented by the equation 훾-푡푏.(퐺) in the case of 퐺. Among the many elements that make up the border dominating set is the minimal cardinality of T. The first presentation of the collection of secure and dominant graphs at the total boundary occurs in this chapter. [ABSTRACT FROM AUTHOR]

Published
2024
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41. Design of type-2 fuzzy controlled unity power factor Vienna rectifier for electrical applications.

Author

Muthuswamy, Shanmugapriya, Ramesh, Suguna, Anandharaj, Anandhi, Rajendran, Poonguzhali, Palani, Monika, and Vaidyanathan, Lakshmi Priya

Subjects
ELECTRIC power distribution, ELECTRIC power transmission, ELECTRIC power distribution grids, FUZZY logic, CONSUMERS
Abstract

Generally, a certain amount of energy is naturally lost during the transmission of useable electricity to the consumer. Specifically, the reactive power produced by the consumer's electrical equipment, circulates in the power grid. In addition, electromagnetic interference that the consumer emits, also contributes to large losses in the electricity distribution system. Therefore, to overcome these issues the Vienna rectifier is proposed. To maintain the constant DC link with reduced power losses, the Type-2 Fuzzy Logic Controller (FLC) is introduced. The 3 ϕ diode rectifier is deployed to reduce the ripples contents from the circuit. With assistance of Adaptive hysteresis controller, a near unity power factor operation is achieved in this suggested work. The obtained outcomes are verified using MATLAB simulation platform. [ABSTRACT FROM AUTHOR]

Published
2024
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