Ijraset Journal For Research in Applied Science and Engineering Technology
Authors: Atisha Mitra, Prof. Dr. Aparna Shrivastava
DOI Link: https://doi.org/10.22214/ijraset.2024.59347
Certificate: View Certificate
Artificial intelligence (AI) is a force that is transforming industries and reshaping societal norms in a variety of fields. This study paper offers a thorough analysis of the most current developments in artificial intelligence (AI) technology, their uses, and the moral issues raised by their widespread use. The first section of the paper explains the basic ideas and techniques of artificial intelligence (AI), such as machine learning, deep learning, and natural language processing. It explores how AI has developed from rule-based systems to more complex models like neural networks and reinforcement learning, emphasizing the turning points that have brought AI to this point. The study then delves into the various uses of AI in industries including healthcare, banking, transportation, and education. It looks at how AI-powered systems are boosting user experiences, streamlining decision-making procedures, and optimizing operations across a range of industries. The revolutionary effects of AI on several industries and society at large are demonstrated through case studies and real-world examples. The study also explores the societal ramifications and ethical issues raised by the widespread use of AI technologies. It tackles issues with algorithmic bias, data privacy, employment displacement, and the possibility of autonomous systems acting against human ideals. The study places a strong emphasis on the necessity of frameworks that guarantee AI systems\' accountability, transparency, and justice as well as the significance of developing ethical AI. The article also addresses how researchers, industry stakeholders, and legislators might navigate the ethical issues raised by AI. It looks at programs like interdisciplinary cooperation, ethical guidelines, and regulatory guidelines that try to promote responsible AI innovation. The study report examines new developments as well as potential paths for AI research and development. It talks about research topics that could solve present issues and influence AI\'s course in the future, like explainable AI, federated learning, and AI ethics. To sum up, this research paper offers a thorough summary of the developments and moral issues surrounding artificial intelligence. The study adds to a better understanding of the opportunities and difficulties presented by artificial intelligence (AI) in the contemporary world by exploring the complex terrain of AI technologies and their societal impact. It emphasizes how crucial it is to develop AI responsibly and how interdisciplinary cooperation is necessary to maximize AI\'s potential while lowering its hazards.
I. ARTIFICIAL INTELLIGENCE: ITS MEANING
The goal of artificial intelligence (AI), a relatively new field that has only been around for 60 years, is to mimic human cognitive capacities through a variety of sciences, ideas, and techniques (such as computer science, statistical analysis, probability, and mathematical logic). Started during the Second World War, its advancements are closely related to computing's and have allowed computers to accomplish a growing number of intricate jobs that were previously limited to human performance. Over the course of several decades, artificial intelligence (AI) has undergone major breakthroughs, paradigm shifts, and milestones. Although the idea of intelligent machines has long piqued the interest of academics and researchers, organized efforts to study AI as a scientific field did not start until the middle of the 20th century. The idea that machines could be given intelligence similar to that of humans drove the optimism and lofty objectives of the early years of AI research. The field of artificial intelligence (AI) was formally founded as a separate field of research in 1956, at the Dartmouth Conference, where the term "artificial intelligence" was first used. During this time, pioneers in the field of artificial intelligence (AI) including Alan Turing, John McCarthy, Herbert Simon, and Marvin Minsky developed early AI algorithms, proposed theoretical frameworks, and investigated the concepts of symbolic reasoning and machine learning. The Logic Theorist, developed in 1956 by Allen Newell and Herbert Simon, was among the first artificial intelligence (AI) systems that showed how machines might use symbolic manipulation to solve intricate logical puzzles and validate mathematical theorems.
This was the first instance of symbolic AI, also known as "good old-fashioned AI," which concentrated on employing formal logic and symbolic systems to express knowledge and reasoning. AI research grew quickly in the 1960s and 1970s as a result of government financing, scholarly interest, and technical developments. Expert systems, rule-based programs that mimicked human knowledge in particular fields like engineering, finance, and medical, came into being at this time. Edward Shortliffe created the MYCIN system in the early 1970s to show off the useful uses of artificial intelligence in practical settings. It proved that applying AI techniques for medical diagnosis and therapy advice was feasible.
But in the late 1970s and early 1980s, as scientists struggled to handle uncertainty, scale up AI systems, and achieve human-level intelligence, the initial excitement surrounding AI began to fade. This era, dubbed the "AI winter," was marked by a decrease in funding, a lack of confidence from the academic community, and a move toward more useful, applied AI techniques. Large-scale data sets became available, algorithmic creativity flourished, and computer power increased, all of which contributed to the rebirth of AI in the late 1990s and early 2000s. In AI research, machine learning—more specifically, the creation of neural networks and statistical learning algorithms—became the dominant paradigm.
The internet's growth and the abundance of digital data sources made it possible to apply AI approaches to tasks like speech recognition, computer vision, and natural language processing. One of the key characteristics of modern AI research has been the revolutionary success of deep learning, a branch of machine learning that focuses on training neural networks with several layers. In some categories, such as picture classification, language translation, and game play, deep learning algorithms have outperformed humans in terms of performance.
Nonetheless, this automation is still very different from human intelligence in the strict sense, which is why some academics disagree with the term. The current state of achievement ("weak" or "moderate" AIs, incredibly efficient in their training field) is definitely not comparable to the final level of their study (a "strong" AI, i.e. the ability to contextualize quite varied specialized issues in a wholly autonomous fashion). For the "strong" AI that has only yet been seen in science fiction to be able to model the entire world, basic research advancements rather than only performance gains would be necessary. In enterprise IT, artificial intelligence (AI), machine learning (ML), and deep learning are terms that are frequently used interchangeably, particularly by businesses in their marketing materials. AI, which was first used in the 1950s, describes how computers may mimic human intelligence. It encompasses a constantly evolving range of functions as new technologies are created. AI encompasses a range of technologies, including deep learning and machine learning. Software programs can become increasingly accurate outcome predictors without being specifically trained to do so thanks to machine learning. In order to forecast new output values, machine learning algorithms use historical data as input. With the availability of larger training data sets, this strategy became much more successful. The comprehension of the organization of the brain serves as the foundation for deep learning, a type of machine learning. The foundation of contemporary developments in AI, such as ChatGPT and self-driving automobiles, is deep learning's utilization of artificial neural network architecture. It's true that improvements in AI methods have not only contributed to a surge in productivity but have also given some larger businesses access to whole new markets. It was difficult to conceive employing computer software to connect passengers to cabs before the current wave of artificial intelligence, but Uber has succeeded in doing so and is now a Fortune 500 firm.
Many of the biggest and most prosperous businesses in existence today, like Apple, Microsoft, Alphabet, and Meta, rely heavily on artificial intelligence (AI) to outperform rivals and streamline operations. For instance, Google, an Alphabet company, uses AI extensively in its search engine, Waymo's autonomous vehicles, and Google Brain, which created the transformer neural network design that serves as the foundation for the most recent advancements in natural language processing.
The simulation of human intelligence processes by machines, particularly computer systems, is known as artificial intelligence. Expert systems, natural language processing, speech recognition, and machine vision are a few specific uses of AI. With the increasing hoopla surrounding AI, companies are rushing to highlight the ways in which their goods and services leverage this technology. Frequently, what is called artificial intelligence is just a feature of the technology, like machine learning. Machine learning algorithms must be written and trained on specialized hardware and software, which is a prerequisite for AI. While no one programming language is synonymous with artificial intelligence (AI), many AI developers prefer Python, R, Java, C++, and Julia for their features.
Large volumes of labeled training data are typically ingested by AI systems, which then analyze the data for correlations and patterns before using the patterns to forecast future states. In this way, an image recognition program can learn to recognize and characterize items in photographs by going through millions of examples, or a chatbot-fed text example can learn to create realistic conversations with people. Generative AI algorithms are developing quickly and can produce realistic text, graphics, music, and other media.
Programming for AI concentrates on cognitive abilities such as these:
AI is significant because it has the ability to alter our way of living, working, and playing. It has been successfully applied in business to automate human labour-intensive processes like fraud detection, lead generating, quality control, and customer support. AI is far more efficient than humans at a lot of tasks. AI technologies frequently finish projects fast and with comparatively few errors, especially when it comes to repetitive, detail-oriented activities like reviewing a large number of legal papers to verify important fields are filled in appropriately. AI can provide businesses with previously unknown insights into their operations due to the vast amounts of data it can handle. The fast-growing number of generative AI tools will be significant in a variety of domains ranging from education and marketing to product design.
II. EVOLUTION OF ARTIFICIAL INTELLIGENCE
Over the course of several decades, Artificial Intelligence (AI) has evolved, marked by paradigm shifts, algorithmic advances, and increases in computing capacity. This study offers a thorough account of artificial intelligence's evolutionary history, following the development of d3eep learning and neural networks from their beginnings with early expert systems and symbolic logic. This paper provides an explanation of the development of AI technologies and their effects on many fields by looking at significant turning points, important scholars, and foundational publications. In addition, it looks at the trends, obstacles, and prospective paths for AI research and development, emphasizing how AI has the power to fundamentally alter both technology and society in the future.
The goal of computer science's artificial intelligence (AI) field is to build intelligent machines that are able to carry out tasks that normally call for human intelligence. The origins of artificial intelligence (AI) can be found in early attempts to imitate human reasoning and symbolic logic in the middle of the 20th century. Due to developments in computing infrastructure, data availability, and algorithms, artificial intelligence has experienced tremendous changes over the years. This essay looks at the development of AI from its beginning to the present and highlights significant turning points, scientific discoveries, and difficulties faced. The concept of a universal computing machine, which can simulate any computational process, was presented by pioneers like Alan Turing, and this is where artificial intelligence (AI) got its start. Symbolic AI, which sought to express knowledge and reasoning using formal logic and rule-based systems, was first studied by researchers in the 1950s and 1960s. Early expert systems that showed limited but promising abilities in theorem proving and problem solving were developed as a result of this approach: the General Problem Solver (GPS) and the Logic Theorist. In the 1970s and 1980s, symbolic artificial intelligence (AI) gained significant traction due to excitement regarding the potential for developing intelligent systems using logic-based representations. Nevertheless, as symbolic AI found it difficult to deal with context, uncertainty, and the complexity of the real world, its shortcomings quickly became clear. A period of pessimism and decreased funding for AI research, known as the AI winter, resulted from expert systems' inability to scale and adapt to new domains.In the midst of symbolic AI's downfall, connectionism—a new paradigm motivated by the composition and operations of the human brain—appears. Neural networks and other connectionist models attempted to imitate the dispersed learning and processing mechanisms found in biological systems. Large datasets and the advancement of backpropagation algorithms were the driving forces behind the comeback.
Data-driven approaches to AI became more popular in the late 20th century, with an emphasis on machine learning methods that could draw conclusions and patterns from massive amounts of data. Popular machine learning techniques including decision trees, Bayesian networks, and support vector machines allowed for applications in natural language processing, economics, and healthcare. Machine learning technologies were adopted more quickly as a result of the internet's growth and the abundance of digital data sources, which helped pave the way for the Big Data revolution.
Deep learning became the dominant paradigm in artificial intelligence (AI) during the beginning of the twenty-first century. This was due to advancements in neural network topologies, algorithmic improvements, and processing resources. Convolutional neural networks (CNNs) and recurrent neural networks (RNNs) are two examples of deep learning models that have revolutionized image recognition, speech recognition, and natural language understanding.
These models have achieved human-level performance on a variety of benchmark tasks. Deep neural networks were trained at scale with the help of labeled datasets like ImageNet and COCO, which opened up new possibilities for applications like personalized recommendation systems, autonomous driving, and medical diagnostics.
Even with AI's amazing advancements, there are still many unanswered questions. These include issues with fairness and prejudice, interpretability and transparency, and the social effects of automation powered by AI. Researchers, legislators, and industry stakeholders must work together across disciplinary boundaries to address these issues, and ethical AI development and use must be a top priority. The investigation of novel architectures like transformer models, the fusion of symbolic reasoning and deep learning methodologies, and the creation of AI systems with self-supervised and meta-learning capabilities are among the current topics in AI research. With applications ranging from climate modeling and environmental monitoring to autonomous mobility and tailored treatment, artificial intelligence is expected to play a significant role in transforming civilization in the future. But in order to fully utilize AI, ethical, legal, and societal issues must be resolved. These issues include worries about job displacement, privacy, and security. We can use AI to solve urgent global issues and build a more just and inclusive future for all by encouraging responsible AI innovation and human-centered approaches to technological growth.
To sum up, the development of artificial intelligence has been marked by paradigm shifts, technological advances, and continuing discussions over the nature of consciousness and intelligence. AI has seen a tremendous journey of discovery and invention, starting with its early roots in symbolic logic and continuing with the emergence of deep learning and neural networks. It is crucial to be mindful of the ethical and societal ramifications of AI-driven technologies as we advance the field's research and development and to make sure that AI is applied to better the world.
III. LITERATURE REVIEW
Artificial intelligence (AI) is becoming a commonplace feature of modern life, influencing everything from banking and entertainment to healthcare and transportation. In order to investigate the effects of AI in the modern age, this literature study will consult a range of academic publications and books. Some of the examples of books are Max Tegmark's book "Life 3.0: Being Human in the Age of Artificial Intelligence" Tegmark explores the societal ramifications of powerful AI in "Life 3.0," examining situations in which AI surpasses human intellect. He talks about the possible advantages and disadvantages of these advancements, highlighting the significance of moral issues and the requirement for teamwork to guide AI toward positive results. Other books include, Erik Brynjolfsson and Andrew McAfee's "The Second Machine Age: Work, Progress, and Prosperity in a Time of Brilliant Technologies" In "The Second Machine Age," Brynjolfsson and McAfee explore how digital technology and artificial intelligence are transforming society and the economy. They contend that whereas new technologies have the ability to increase productivity and open up new opportunities, they also present problems like income inequality and job displacement, necessitating the need for proactive legislative responses and skill-development programs.
"Intellectual Fabrication": How Computers Misunderstand the World" by Meredith Broussard
In "Artificial Unintelligence," Broussard exposes the biases and limits present in these technologies and questions the hype around artificial intelligence and machine learning. She pushes for increased accountability and openness in the creation and application of AI, as well as a more nuanced understanding of its potential.
Cathy O'Neil's book "Weapons of Math Destruction: How Big Data Increases Inequality and Threatens Democracy"; In "Weapons of Math Destruction," O'Neil explores how algorithms and data-driven decision-making affect society. She issues a caution against the unbridled application of AI systems, as they have the potential to perpetuate current injustices and subvert democratic ideals. To solve these problems, O'Neil advocates algorithmic responsibility and governmental control.
Melanie Mitchell's book "Artificial Intelligence: A Guide for Thinking Humans"
Aimed at a general readership, Mitchell's book offers a thorough introduction to AI concepts and methodology. She talks on the shortcomings and difficulties that modern AI systems face, namely their incapacity to fully comprehend meaning and context. In the creation and application of AI systems, Mitchell highlights the value of human oversight and critical thinking.
"Superpowers of AI : China, Silicon Valley, and the New World Order" by Kai-Fu Lee ; The global AI race and its geopolitical ramifications are examined by Lee in "AI Superpowers." He contends that although China and the United States lead in AI research and development, their goals and strategies are different. Lee talks about the possible advantages and disadvantages of China becoming a superpower in artificial intelligence, including technological advancement and economic rivalry.
The literature on the effects of AI in the modern period presents a wide spectrum of viewpoints and worries. While some writers highlight how AI has the ability to solve difficult issues and enhance human well-being, others warn against its unforeseen repercussions, which include the loss of jobs, algorithmic bias, and dangers to democracy and privacy.
All things considered, these efforts highlight how crucial it will be to shape the future of AI with human-centered approaches, regulatory control, and ethical considerations. The ethical development and implementation of AI will require interdisciplinary cooperation and educated public conversation as society continues to wrestle with the potential and problems it presents. This study of the literature investigates the state of artificial intelligence (AI) in the modern day, looking at new developments, difficulties, and uses.
This review offers insights into how artificial intelligence (AI) is changing across a range of industries, including healthcare, banking, transportation, education, and more, through an examination of academic papers, reports, and scholarly articles. The impact of AI on society, moral issues, technical advancements, and future possibilities are some of the major subjects. This review attempts to provide a thorough knowledge of the state of artificial intelligence in the modern period by synthesizing the extant literature. Artificial Intelligence (AI) is a force that is changing economies, societies, and people's lives in a number of different industries. The objective of this literature review is to examine the various aspects of artificial intelligence (AI) in the modern world, including healthcare, finance, education, and ethics.
The use of AI in healthcare has transformed patient care, diagnosis, and therapy. Large-scale medical data is analyzed by machine learning algorithms to forecast patient outcomes, tailor treatment regimens, and identify diseases early. AI-powered medical imaging methods improve patient outcomes and save healthcare costs by improving the accuracy of identifying diseases like cancer and cardiovascular disorders. Artificial intelligence (AI) algorithms power investment strategies, risk assessment, fraud detection, and customer support in the financial industry. Automated trading systems use artificial intelligence (AI) to identify market patterns and execute deals at breakneck speed. AI-powered chatbots increase client satisfaction and engagement by offering tailored financial advise. But in order to guarantee equitable and open procedures, regulatory oversight is necessary due to worries about algorithmic biases and systemic hazards.
By automating administrative processes, enabling remote and tailored instruction, and personalizing learning experiences, artificial intelligence (AI) technologies are changing the face of education. Personalized content and feedback are delivered by adaptive learning platforms based on an analysis of students' learning styles, which maximizes learning results. AI-driven educational technologies support a variety of learning requirements and styles by enabling immersive, interactive learning experiences. To optimize the advantages of AI in education, however, issues with data privacy, digital equity, and algorithmic transparency must be resolved.
Deep ethical concerns about privacy, bias, accountability, and employment displacement are brought up by the rapid growth of AI. Artificial intelligence (AI) systems that contain algorithmic biases have the potential to reinforce and magnify societal disparities, resulting in biased decisions in domains including employment, credit, and criminal justice. To reduce these risks and make sure AI technologies respect fundamental human rights and serve the greater good, ethical frameworks and regulatory measures are crucial.
Artificial intelligence (AI) is influencing social relationships, cultural norms, and civic involvement in ways that go beyond the institutional and economic spheres. Social media companies use AI algorithms to target ads, control user-generated material, and curate tailored content. On the other hand, issues with misinformation, echo chambers, and filter bubbles draw attention to the necessity of algorithmic openness and responsible AI governance. Furthermore, by changing labor markets and eliminating jobs, AI-driven automation threatens to worsen socioeconomic disparities. As a result, proactive steps are needed to ensure inclusive economic growth and equitable opportunity distribution.
Beyond the institutional and commercial domains, artificial intelligence (AI) is affecting civic engagement, cultural norms, and interpersonal interactions. AI algorithms are used by social media businesses for ad targeting, content curation, and control over user-generated content. However, problems with echo chambers, filter bubbles, and disinformation highlight the need for algorithmic transparency and ethical AI governance. Furthermore, AI-driven automation poses a potential to exacerbate socioeconomic inequality by altering labor markets and displacing jobs. Proactive measures are therefore required to guarantee equitable opportunity distribution and inclusive economic growth.
IV. RESEARCH GAP
Even with a wealth of research on the effects of artificial intelligence (AI) in the modern world, there are still a number of important research gaps that need to be filled.
The socioeconomic effects of adopting AI, particularly in poorer nations, are one such gap. Few studies have looked at how AI is influencing socio-economic dynamics in emerging nations, despite the fact that many have looked at how AI affects advanced economies. Developing customized policies and strategies to support equitable growth and development requires an understanding of the special opportunities and challenges that AI presents in many global contexts.
Furthermore, while a wealth of literature has been written about the possibility of job displacement as a result of AI-driven automation, there hasn't been any thorough study done on the wider effects on labor markets. Studies that already exist frequently concentrate on the quantitative components of job growth or loss, ignoring qualitative elements like skills mismatch, wage polarization, and job quality. Developing successful labor market regulations and workforce development programs requires a more sophisticated understanding of how artificial intelligence is changing the nature of work and employment relationships.
Research on the ethical issues surrounding the use of AI is still very much in its infancy, especially when it comes to algorithmic accountability and transparency. There is little empirical study on the effects of biased AI systems in diverse domains on the actual world, despite increased awareness of the dangers of algorithmic bias and discrimination. Further impeding efforts to enhance justice and equity in AI applications is the lack of agreement on defined frameworks or approaches for assessing and eliminating algorithmic bias.
Regarding the long-term societal ramifications of widespread AI adoption, particularly its effects on human behavior, social conventions, and cultural values, there is another noteworthy research vacuum. There is a lack of research on the long-term societal changes brought about by AI technology, despite the fact that several studies have looked at short-term behavioral changes brought about by AI-mediated interactions. It is essential to comprehend how AI affects human cognition, interpersonal interactions, and group decision-making in order to foresee and resolve potential socio-cultural issues in the digital age.
To offer comprehensive viewpoints on the effects of AI in the modern day, multidisciplinary study is also required, integrating insights from disciplines like psychology, sociology, and philosophy. Through the promotion of interdisciplinary cooperation, scholars can acquire a more thorough comprehension of the complex ramifications of artificial intelligence in diverse fields and for different stakeholder populations. Longitudinal studies that monitor the development of AI technologies and their consequences over time can also yield important insights into new trends and possible directions for further study and governmental actions.
In conclusion, despite a great deal of research on the effects of AI in the modern day, there are still a number of unanswered questions in a number of areas, including socioeconomic effects, ethical issues, long-term societal ramifications, and interdisciplinary viewpoints. In order to advance our understanding of AI's transformational potential and influence decision-making in the digital era, it is imperative that these gaps be filled through rigorous empirical research, interdisciplinary collaboration, and longitudinal studies.
V. RESEARCH OBJECTIVES
This study will help us explore different aspects of the artificial agencies and help gain knowledge on its ways and processes. It will help find both the positive and negative aspects and will help get a broad understanding on the topic. As I am studying Political Science it will also help me understand the role of artificial intelligence in the politics aspect as well. The overall significance is to help people understand how artificial intelligence is an important part of the society as it makes the machines work in an advance way to make our lives easier but it also comes with some cons. With the rise of AI, it has also made a huge impact on the different sector of the society. Therefore, the huge impact made in the society by artificial intelligence is the main understanding of this topic.
A. Hypotheses
It is via this research that we want to get a better understanding of how an artificial intelligence works and its day-to-day impact on the society. It has an effect on many aspects of the society as it has bought many positive and negative changes which has helped gain more knowledge on this topic from different perspectives. This also shows how the artificial intelligence has made live easier by helping in various sectors of the society. This is also where the social media has helped artificial intelligence a lot and has now everyone can avail them without any difficulties. As a student from political Science, I even wanted to know how the artificial intelligence has an impact on politics. Many people nowadays are dependent on the technologies so from there we can find out has other things being replaced by the social media or any technology. By this study the importance of artificial intelligence how it is being done can be understood in a different way. This research aims to add to the current body of information about the artificial intelligence effect by using certain suggested framework. The study's findings may aid in the gaining more knowledge on the topic.
VI. FINDINGS
The findings on the impact of artificial intelligence (AI) in contemporary times reveal a complex landscape characterized by both opportunities and challenges across various domains. Below are some key findings derived from existing research:
VII. RECOMMENDATIONS
Based on the findings regarding the impact of artificial intelligence (AI) in contemporary times, the following recommendations are proposed to harness the benefits of AI while mitigating associated risks and challenges:
AI is changing many facets of contemporary life, including healthcare, entertainment, transportation, and education. Numerous advantages are provided by the technology, including more accuracy, increased efficiency, and increased customization. Even though there are moral questions, AI has the ability to solve major world issues. As AI develops, it is critical to take into account how technology will affect society and make sure that the ideals and ideas guiding its development put human welfare first. While artificial intelligence (AI) continues to advance and become more sophisticated, there are concerns. Concerns among the public include jobs being replaced by robots, fairness, and privacy. However, AI can also assist us in finding solutions to significant global issues. It may support our efforts to combat climate change, ensure that everyone has access to enough food, and provide healthcare to those who require it. AI is changing many facets of contemporary life, including healthcare, entertainment, transportation, and education. Numerous advantages are provided by the technology, including more accuracy, increased efficiency, and increased customization. Furthermore, the increasing use of AI-driven surveillance technologies raises concerns about privacy and autonomy rights for women, particularly in contexts where surveillance is used to control or monitor women\'s behaviour and movements. While AI cannot fix every issue facing your company, it has the power to fundamentally alter the way that business is conducted. It has an impact on all industries, including manufacturing and banking, and results in previously unheard-of advances in efficiency. Newer uses will be developed when more companies accept this technology and begin experimenting with it. AI will bring about a transformation that is even more extensive and pervasive than the arrival of computing devices. It will alter how we do business, receive medical diagnosis, carry out surgeries, and operate motor vehicles. Computer vision, financial modeling, medical imaging, and industrial processes are already being altered by it. The future promises faster and better decision-making because we are getting close to realizing this immense potential.
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Copyright © 2024 Atisha Mitra, Prof. Dr. Aparna Shrivastava . This is an open access article distributed under the Creative Commons Attribution License, which permits unrestricted use, distribution, and reproduction in any medium, provided the original work is properly cited.
Paper Id : IJRASET59347
Publish Date : 2024-03-23
ISSN : 2321-9653
Publisher Name : IJRASET
DOI Link : Click Here