Status of Science, Technology and society in India. Today is affected Science and technology for society in India and govt. system. Fail all point of Technology and Science due to COVID-19 in India.
Information technology and its impact on societyArijeet Dutta
1) Information technology refers to the use of computers and telecommunications to store, retrieve, transmit and manipulate data.
2) IT and society are rapidly co-evolving in surprising ways, with each changing the other. Increased digitization of social interactions allows new ways of gathering and synthesizing previously disconnected information.
3) IT impacts many aspects of daily life including education, healthcare, business, governance, and transportation. It has created new jobs but also contributed to job losses through outsourcing. While enhancing communication, it also enables privacy and security concerns if not managed carefully.
countries that offer the best quality of education.pptxNilakshi Sharma
The document discusses factors that contribute to a good quality education system and identifies several countries with highly regarded systems. It outlines key factors like access, quality, infrastructure, government and cultural support. It then provides examples of countries with strong education outcomes, including Finland, Japan, South Korea, Singapore and Canada, noting aspects of each system like their focus on skills, discipline, individualized learning and inclusivity.
Information and communication technologyTamojit Das
ICT refers to technologies that are used for information processing, communication, and storage. It includes computers, communication devices, software, and networks used to convert, store, protect, process, transmit, and retrieve information. ICT has evolved through phases from large mainframe computers to personal computers, networking, wireless technologies, and digital convergence. ICT plays a vital role in modern business through applications like e-commerce, inventory management, data management, and more. It also supports education through ICT education, ICT-supported education, and ICT-enabled education.
The document discusses several key topics related to science, technology, and policy in India. It notes that science has greatly improved living standards and given tools to expand human thought. While scientific progress is increasing, India aims to close the gap with other nations. The document outlines India's science policy goals of promoting research, innovation, and ensuring scientific knowledge benefits all. It emphasizes technological self-reliance and making technology impact citizens' lives.
This document provides an overview of information technology, including its history, present role, hardware and software components, advantages and disadvantages, and benefits. It traces the development of IT from the 1960s-1970s when the term was first used in banks and hospitals for data storage, to the 1980s introduction of personal computers and the information age. Modern IT involves interconnected networks and remote data storage. While facilitating information delivery and global business, advances in IT also enable access to inappropriate content and illicit transactions, so its impacts must be managed carefully.
National Innovation Systems & InstitutionsEbru Basak
This document discusses national innovation systems (NIS) from an institutional perspective. It outlines the development of the concept of NIS and defines it as a network of institutions involved in technology development and diffusion within national borders. A systemic approach views innovation as an interactive and cumulative process involving industry, universities, government and other actors. Institutions play key roles in NIS by providing information, managing conflicts, incentivizing innovation, and channeling resources. The functions and components of NIS vary across countries due to different socioeconomic and cultural contexts.
The document discusses the role of information and communication technology (ICT) in teaching and learning. It states that ICT allows teachers to create more learner-centric environments by supporting moves from traditional teacher-centric styles to more student-focused methods. ICT can be used to reinforce existing teaching practices as well as change how teachers and students interact. The document provides examples of how teachers can use technologies like overhead projectors, electronic whiteboards, language labs, online lectures, and learning management systems to support administrative tasks, deliver lessons, and promote understanding of difficult concepts.
Information technology and its impact on societyArijeet Dutta
1) Information technology refers to the use of computers and telecommunications to store, retrieve, transmit and manipulate data.
2) IT and society are rapidly co-evolving in surprising ways, with each changing the other. Increased digitization of social interactions allows new ways of gathering and synthesizing previously disconnected information.
3) IT impacts many aspects of daily life including education, healthcare, business, governance, and transportation. It has created new jobs but also contributed to job losses through outsourcing. While enhancing communication, it also enables privacy and security concerns if not managed carefully.
countries that offer the best quality of education.pptxNilakshi Sharma
The document discusses factors that contribute to a good quality education system and identifies several countries with highly regarded systems. It outlines key factors like access, quality, infrastructure, government and cultural support. It then provides examples of countries with strong education outcomes, including Finland, Japan, South Korea, Singapore and Canada, noting aspects of each system like their focus on skills, discipline, individualized learning and inclusivity.
Information and communication technologyTamojit Das
ICT refers to technologies that are used for information processing, communication, and storage. It includes computers, communication devices, software, and networks used to convert, store, protect, process, transmit, and retrieve information. ICT has evolved through phases from large mainframe computers to personal computers, networking, wireless technologies, and digital convergence. ICT plays a vital role in modern business through applications like e-commerce, inventory management, data management, and more. It also supports education through ICT education, ICT-supported education, and ICT-enabled education.
The document discusses several key topics related to science, technology, and policy in India. It notes that science has greatly improved living standards and given tools to expand human thought. While scientific progress is increasing, India aims to close the gap with other nations. The document outlines India's science policy goals of promoting research, innovation, and ensuring scientific knowledge benefits all. It emphasizes technological self-reliance and making technology impact citizens' lives.
This document provides an overview of information technology, including its history, present role, hardware and software components, advantages and disadvantages, and benefits. It traces the development of IT from the 1960s-1970s when the term was first used in banks and hospitals for data storage, to the 1980s introduction of personal computers and the information age. Modern IT involves interconnected networks and remote data storage. While facilitating information delivery and global business, advances in IT also enable access to inappropriate content and illicit transactions, so its impacts must be managed carefully.
National Innovation Systems & InstitutionsEbru Basak
This document discusses national innovation systems (NIS) from an institutional perspective. It outlines the development of the concept of NIS and defines it as a network of institutions involved in technology development and diffusion within national borders. A systemic approach views innovation as an interactive and cumulative process involving industry, universities, government and other actors. Institutions play key roles in NIS by providing information, managing conflicts, incentivizing innovation, and channeling resources. The functions and components of NIS vary across countries due to different socioeconomic and cultural contexts.
The document discusses the role of information and communication technology (ICT) in teaching and learning. It states that ICT allows teachers to create more learner-centric environments by supporting moves from traditional teacher-centric styles to more student-focused methods. ICT can be used to reinforce existing teaching practices as well as change how teachers and students interact. The document provides examples of how teachers can use technologies like overhead projectors, electronic whiteboards, language labs, online lectures, and learning management systems to support administrative tasks, deliver lessons, and promote understanding of difficult concepts.
Technology plays an important role in nearly every aspect of modern business. It can be used to increase production through automation, improve marketing through channels like email, online ads and social media, and enhance communication within and between organizations. The internet in particular has transformed how business is conducted, enabling e-commerce, e-banking, online shopping and more. While technology provides advantages like increased efficiency, scalability and improved relationships, it also presents risks like high costs, security issues and the potential to make employees lazy or distract them from work. Overall, businesses must carefully evaluate what technologies best suit their specific needs and goals.
1. A sustainable society meets the needs of the present without compromising the ability of future generations to meet their own needs. It exists in harmony with the environment.
2. India has implemented programs like the National e-Governance Program (NeGP) to improve governance and reduce poverty through information and communication technologies (ICT). NeGP aims to provide government services to rural citizens through 100,000 Common Service Centers.
3. The Common Service Centers (CSC) act as primary access points in rural India for delivery of financial, social and digital inclusion programs. CSCs are owned and operated by local entrepreneurs and aim to empower communities through access to services, education and opportunities for employment and business.
The document discusses the role and impact of information and communication technologies (ICTs) in development. It notes that ICTs have transformed the modern globalized world and helped connect societies in a "global village." When deployed wisely, ICTs can help improve services, transparency, and outcomes in sectors like health, education, and poverty reduction. Mobile technologies in particular have facilitated new economic opportunities and services. However, ICTs also enable some risks like the spread of misinformation and cybercrime, so their development and impacts are complex with both benefits and challenges.
Economic diplomacy involves a country using economic resources and policy issues to pursue foreign policy objectives. It includes a country's representation at organizations like the WTO to influence economic policies of other nations. Economic diplomats advise their government on how to shape other countries' economic policies through incentives or sanctions. Effective economic diplomacy requires technical expertise to analyze how other countries' economic situations impact politics and trade interests. It also involves collaboration between governments and businesses on issues like technology, environment and health.
This paper addresses the types of knowledge that are needed in entrepreneurial firms using a unique data base of executives and directors for all IPOs filed between 1990 and 2010. Using highest educational degrees as a proxy for educational knowledge, it shows that 85% of those with PhDs are concentrated in the life sciences and ICT (information and communication technology) industries and second, that those in the ICT industries are concentrated at lower layers in a “digital stack” of industries, ranging from semiconductors and other electronics at the bottom layer to computing and Internet infrastructure at the middle layer and Internet content, commerce, and services in the top layer. Third, industries with fewer PhDs have more bachelor’s and MBA degrees suggesting that PhDs are being replaced by them and not M.S. degrees. Fourth, age is higher for industries with the most PhDs thus suggesting a greater need for experiential knowledge in industries with greater needs for educational knowledge. Fifth, the number of Nobel Prizes tracks industries with high fractions of PhDs.
Sustainable Development Goals: The Role of Technology and InnovationSDGsPlus
The document discusses the Sustainable Development Goals (SDGs) and the role of technology and innovation in achieving them. It notes that the SDGs, adopted in 2015, are more comprehensive than the previous Millennium Development Goals. Achieving the SDGs will require vast resources and partnerships between public and private sectors. Technology can help power progress on every SDG, though the digital divide remains a risk. The World Bank aims to harness science and technology to support sustainable development pathways and help clients leverage opportunities like those from the fourth industrial revolution.
Technology is continuously changing society in many ways. It has impacted communities, work, health, and communication. Regarding communities, technology has influenced traditions but also allows for more access to information. At work, technology improves communication, encourages innovation, aids human resource management, and creates mobility. In health, it has led to advances like minimally invasive surgeries and more accurate diagnoses. Communication has been transformed through social media, email, and teleconferencing which connects people in new ways. Overall, technology shapes how society evolves and will continue determining humanity's future development.
Impact of Education on Socio-Economic Development of Rural People of BangladeshDr. Mokter Hossain
Rahman, S. M., & Hossain, M. M. (2006). Impact of Education on Socio-Economic Development of Rural People of Bangladesh. Bangladesh Education Journal, 5(1), 9-26. PDF File. Available online at: http://bafed.net/Files/2006_June.pdf#page=9
Singapore has implemented three master plans since 1997 to integrate technology into education. The plans aimed to increase computer access for students and teachers. Currently, schools have wireless internet and most students and teachers have laptops or mobile devices. The latest plan seeks to transform learning environments through technology and equip students with skills for a knowledge economy. Singapore's Ministry of Education continues supporting technology in public schools and connecting them to high-speed broadband networks. The focus of technology is enhancing teaching and learning through new pedagogies, not just computer access itself.
The document provides an overview of computers and their impact on society. It discusses how Sir Timothy Berners-Lee invented the World Wide Web in 1990, prompting a drastic growth in computer usage. Computers are now used in many spheres including education, business, science, art, communication, and governance. Estonia is highlighted as an example of an e-government with many public services available online. Both positive and negative effects of computers on society are outlined, such as increased efficiency but also risks of cybercrime, addiction, and reduced social interaction. The components that power Estonia's digital services are explained in detail. Finally, the document poses discussion questions and provides concluding quotes about society's relationship with computers.
The original slidecast can be viewed at http://youtu.be/Nce4WbzNR-k
This presentation was made on 3 May, 2013 at the University of Guyana for the ENV 2202 Course : Environmental Conservation and Management. The second part of the lecture was delivered by Roxroy Bollers on the use of GIS.
Economic integration involves reducing trade barriers between countries through international agreements or regional partnerships. The main approaches are multilateral cooperation under the WTO or smaller regional blocs. Integration provides benefits like increased trade opportunities and employment but can also divert trade away from non-member states. Deeper integration involves moving from preferential trade areas and free trade zones to customs unions and common markets with coordinated economic policies and freedom of movement. The European Union represents the most integrated model as both an economic and political union.
CRDF Global President and CEO Cathleen A. Campbell. Presented at CRDF Global's Science Diplomacy Boot camp for Journalists, Thursday, July 14 at the New York Academy of Sciences.
http://www.ganeshmachinery.com/ | In recent years, the STEM education movement has found increasing acceptance as a way to teach young students about science, technology, engineering, and mathematics in an integrated manner, from elementary school through high school.
Science And Technology Capacity And The Knowledge SocietySD Paul
This document discusses the transition to a global knowledge society and the need to build science and technology capacity worldwide. It notes that the 21st century will be driven by knowledge and innovation. However, wide gaps exist between developed and developing nations in areas like human capital, infrastructure, and access to information that are critical in the new knowledge economy. The document outlines strategies needed to strengthen science education, access to scientific literature, and international cooperation to help build science and technology capabilities in all countries.
The document discusses neoliberalism and its rise globally following World War 2. It establishes that the Bretton Woods institutions like the IMF and World Bank, as well as the GATT and later WTO, were created to spread and enforce neoliberal policies that promoted deregulation, privatization, and free trade. While claiming to support freedom and growth, these institutions in practice amplified the power of wealthy states and corporations and undermined developing nations. The document also analyzes how neoliberal policies negatively impacted agriculture, industry, and social services in the Philippine context.
ICT is used in primary schools in various ways:
- As a teaching tool through interactive whiteboards, computers, and the internet to engage students.
- Websites are used for subjects like literacy, numeracy, and across the curriculum to supplement learning.
- The school portal is a website that teachers, students, parents and administrators can access with resources, student information, and communication tools.
- Websites like My School provide school profiles and statistics to help parents choose schools and hold schools accountable.
- The Premier's Reading Challenge website allows students to track reading progress towards yearly goals.
This document summarizes the role of the education sector in responding to and preparing for the fourth industrial revolution (IR4.0). It discusses how IR4.0 will impact jobs and skills needs, requiring education systems to focus on skills like problem solving, critical thinking, and social-emotional skills. Personalized learning using technologies like learning analytics and artificial intelligence can help prepare students. Education systems must ensure both students and teachers have skills in fields like science, technology, engineering, and mathematics to thrive in an automated future. The role of the education sector is to reform policies and collaborate with private sectors to provide appropriate training and reduce inequality in the face of widespread technological change.
Policy Issue in Technology and Future ProspectsShashi Singh
The role played by technology is inevitable. It has revolutionised the whole world. In India, more than half of the expenditure on R&D is incurred by government. So, government policy of S&T plays a vital role in development of Science and Technology.
Technology plays an important role in nearly every aspect of modern business. It can be used to increase production through automation, improve marketing through channels like email, online ads and social media, and enhance communication within and between organizations. The internet in particular has transformed how business is conducted, enabling e-commerce, e-banking, online shopping and more. While technology provides advantages like increased efficiency, scalability and improved relationships, it also presents risks like high costs, security issues and the potential to make employees lazy or distract them from work. Overall, businesses must carefully evaluate what technologies best suit their specific needs and goals.
1. A sustainable society meets the needs of the present without compromising the ability of future generations to meet their own needs. It exists in harmony with the environment.
2. India has implemented programs like the National e-Governance Program (NeGP) to improve governance and reduce poverty through information and communication technologies (ICT). NeGP aims to provide government services to rural citizens through 100,000 Common Service Centers.
3. The Common Service Centers (CSC) act as primary access points in rural India for delivery of financial, social and digital inclusion programs. CSCs are owned and operated by local entrepreneurs and aim to empower communities through access to services, education and opportunities for employment and business.
The document discusses the role and impact of information and communication technologies (ICTs) in development. It notes that ICTs have transformed the modern globalized world and helped connect societies in a "global village." When deployed wisely, ICTs can help improve services, transparency, and outcomes in sectors like health, education, and poverty reduction. Mobile technologies in particular have facilitated new economic opportunities and services. However, ICTs also enable some risks like the spread of misinformation and cybercrime, so their development and impacts are complex with both benefits and challenges.
Economic diplomacy involves a country using economic resources and policy issues to pursue foreign policy objectives. It includes a country's representation at organizations like the WTO to influence economic policies of other nations. Economic diplomats advise their government on how to shape other countries' economic policies through incentives or sanctions. Effective economic diplomacy requires technical expertise to analyze how other countries' economic situations impact politics and trade interests. It also involves collaboration between governments and businesses on issues like technology, environment and health.
This paper addresses the types of knowledge that are needed in entrepreneurial firms using a unique data base of executives and directors for all IPOs filed between 1990 and 2010. Using highest educational degrees as a proxy for educational knowledge, it shows that 85% of those with PhDs are concentrated in the life sciences and ICT (information and communication technology) industries and second, that those in the ICT industries are concentrated at lower layers in a “digital stack” of industries, ranging from semiconductors and other electronics at the bottom layer to computing and Internet infrastructure at the middle layer and Internet content, commerce, and services in the top layer. Third, industries with fewer PhDs have more bachelor’s and MBA degrees suggesting that PhDs are being replaced by them and not M.S. degrees. Fourth, age is higher for industries with the most PhDs thus suggesting a greater need for experiential knowledge in industries with greater needs for educational knowledge. Fifth, the number of Nobel Prizes tracks industries with high fractions of PhDs.
Sustainable Development Goals: The Role of Technology and InnovationSDGsPlus
The document discusses the Sustainable Development Goals (SDGs) and the role of technology and innovation in achieving them. It notes that the SDGs, adopted in 2015, are more comprehensive than the previous Millennium Development Goals. Achieving the SDGs will require vast resources and partnerships between public and private sectors. Technology can help power progress on every SDG, though the digital divide remains a risk. The World Bank aims to harness science and technology to support sustainable development pathways and help clients leverage opportunities like those from the fourth industrial revolution.
Technology is continuously changing society in many ways. It has impacted communities, work, health, and communication. Regarding communities, technology has influenced traditions but also allows for more access to information. At work, technology improves communication, encourages innovation, aids human resource management, and creates mobility. In health, it has led to advances like minimally invasive surgeries and more accurate diagnoses. Communication has been transformed through social media, email, and teleconferencing which connects people in new ways. Overall, technology shapes how society evolves and will continue determining humanity's future development.
Impact of Education on Socio-Economic Development of Rural People of BangladeshDr. Mokter Hossain
Rahman, S. M., & Hossain, M. M. (2006). Impact of Education on Socio-Economic Development of Rural People of Bangladesh. Bangladesh Education Journal, 5(1), 9-26. PDF File. Available online at: http://bafed.net/Files/2006_June.pdf#page=9
Singapore has implemented three master plans since 1997 to integrate technology into education. The plans aimed to increase computer access for students and teachers. Currently, schools have wireless internet and most students and teachers have laptops or mobile devices. The latest plan seeks to transform learning environments through technology and equip students with skills for a knowledge economy. Singapore's Ministry of Education continues supporting technology in public schools and connecting them to high-speed broadband networks. The focus of technology is enhancing teaching and learning through new pedagogies, not just computer access itself.
The document provides an overview of computers and their impact on society. It discusses how Sir Timothy Berners-Lee invented the World Wide Web in 1990, prompting a drastic growth in computer usage. Computers are now used in many spheres including education, business, science, art, communication, and governance. Estonia is highlighted as an example of an e-government with many public services available online. Both positive and negative effects of computers on society are outlined, such as increased efficiency but also risks of cybercrime, addiction, and reduced social interaction. The components that power Estonia's digital services are explained in detail. Finally, the document poses discussion questions and provides concluding quotes about society's relationship with computers.
The original slidecast can be viewed at http://youtu.be/Nce4WbzNR-k
This presentation was made on 3 May, 2013 at the University of Guyana for the ENV 2202 Course : Environmental Conservation and Management. The second part of the lecture was delivered by Roxroy Bollers on the use of GIS.
Economic integration involves reducing trade barriers between countries through international agreements or regional partnerships. The main approaches are multilateral cooperation under the WTO or smaller regional blocs. Integration provides benefits like increased trade opportunities and employment but can also divert trade away from non-member states. Deeper integration involves moving from preferential trade areas and free trade zones to customs unions and common markets with coordinated economic policies and freedom of movement. The European Union represents the most integrated model as both an economic and political union.
CRDF Global President and CEO Cathleen A. Campbell. Presented at CRDF Global's Science Diplomacy Boot camp for Journalists, Thursday, July 14 at the New York Academy of Sciences.
http://www.ganeshmachinery.com/ | In recent years, the STEM education movement has found increasing acceptance as a way to teach young students about science, technology, engineering, and mathematics in an integrated manner, from elementary school through high school.
Science And Technology Capacity And The Knowledge SocietySD Paul
This document discusses the transition to a global knowledge society and the need to build science and technology capacity worldwide. It notes that the 21st century will be driven by knowledge and innovation. However, wide gaps exist between developed and developing nations in areas like human capital, infrastructure, and access to information that are critical in the new knowledge economy. The document outlines strategies needed to strengthen science education, access to scientific literature, and international cooperation to help build science and technology capabilities in all countries.
The document discusses neoliberalism and its rise globally following World War 2. It establishes that the Bretton Woods institutions like the IMF and World Bank, as well as the GATT and later WTO, were created to spread and enforce neoliberal policies that promoted deregulation, privatization, and free trade. While claiming to support freedom and growth, these institutions in practice amplified the power of wealthy states and corporations and undermined developing nations. The document also analyzes how neoliberal policies negatively impacted agriculture, industry, and social services in the Philippine context.
ICT is used in primary schools in various ways:
- As a teaching tool through interactive whiteboards, computers, and the internet to engage students.
- Websites are used for subjects like literacy, numeracy, and across the curriculum to supplement learning.
- The school portal is a website that teachers, students, parents and administrators can access with resources, student information, and communication tools.
- Websites like My School provide school profiles and statistics to help parents choose schools and hold schools accountable.
- The Premier's Reading Challenge website allows students to track reading progress towards yearly goals.
This document summarizes the role of the education sector in responding to and preparing for the fourth industrial revolution (IR4.0). It discusses how IR4.0 will impact jobs and skills needs, requiring education systems to focus on skills like problem solving, critical thinking, and social-emotional skills. Personalized learning using technologies like learning analytics and artificial intelligence can help prepare students. Education systems must ensure both students and teachers have skills in fields like science, technology, engineering, and mathematics to thrive in an automated future. The role of the education sector is to reform policies and collaborate with private sectors to provide appropriate training and reduce inequality in the face of widespread technological change.
Policy Issue in Technology and Future ProspectsShashi Singh
The role played by technology is inevitable. It has revolutionised the whole world. In India, more than half of the expenditure on R&D is incurred by government. So, government policy of S&T plays a vital role in development of Science and Technology.
The document summarizes India's science and technology policies since 1958, highlighting key goals and initiatives of the latest 2013 policy. The 2013 policy aims to position India among top five global scientific powers and increase investment in research and development. It focuses on using science, technology and innovation to promote inclusive growth and developing talent in these fields. The policy also seeks to strengthen public-private partnerships and international collaborations in science and technology.
The document summarizes India's science and technology policies since 1958 and outlines goals of the new Science, Technology and Innovation Policy. Key points include: establishing India as a top global scientific power by 2020; increasing private and public investment in research and development; promoting scientific careers; financing entrepreneurs; and international cooperation to create global infrastructure. The policy aims to use science, technology, and innovation for faster, sustainable, and inclusive national growth.
The document discusses science, technology, and society in the Philippines. It begins by outlining the Philippine constitution which establishes the government's policy of prioritizing science, technology, research and development. It then defines science as the systematic study of the natural world through observation and experimentation. Technology is defined as applying scientific knowledge to solve practical problems. The document notes that science and technology are important for society by improving living standards through applications like healthcare. It also discusses how technology affects communication, learning and thinking in society. Various categories and fields of technology are outlined like power/energy, bio-related, construction, manufacturing and communication technologies. Finally, it defines society as a large group of people sharing culture and institutions.
The document outlines India's goals and plans in its new Science, Technology and Innovation policy. It aims to position India among the top five global scientific powers by 2020 and increase investment in research and development, including from private sector and for social goods. The policy seeks to use science, technology and innovation for faster, sustainable and more inclusive growth in India. It also aims to attract talented individuals to careers in science and encourage gender parity and scientific temper among all sections of society.
Role of Science and Technology in the Sequence of Social Changeijtsrd
Science, technology and innovation each represent a successively larger category of activities which are highly interdependent but distinct. Science contributes to technology in at least six ways 1 new knowledge which serves as a direct source of ideas for new technological possibilities 2 source of tools and techniques for more efficient engineering design and a knowledge base for evaluation of feasibility of designs 3 research instrumentation, laboratory techniques and analytical methods used in research that eventually find their way into design or industrial practices, often through intermediate disciplines 4 practice of research as a source for development and assimilation of new human skills and capabilities eventually useful for technology 5 creation of a knowledge base that becomes increasingly important in the assessment of technology in terms of its wider social and environmental impacts 6 knowledge base that enables more efficient strategies of applied research, development, and refinement of new technologies. The converse impact of technology on science is of at least equal importance 1 through providing a fertile source of novel scientific questions and thereby also helping to justify the allocation of resources needed to address these questions in an efficient and timely manner, extending the agenda of science 2 as a source of otherwise unavailable instrumentation and techniques needed to address novel and more difficult scientific questions more efficiently.Specific examples of each of these two way interactions are discussed. Because of many indirect as well as direct connections between science and technology, the research portfolio of potential social benefit is much broader and more diverse than would be suggested by looking only at the direct connections between science and technology. Dr. Ashutosh Tripathi | Prof. Ashok Kumar Rai "Role of Science and Technology in the Sequence of Social Change" Published in International Journal of Trend in Scientific Research and Development (ijtsrd), ISSN: 2456-6470, Volume-6 | Issue-5 , August 2022, URL: https://www.ijtsrd.com/papers/ijtsrd50458.pdf Paper URL: https://www.ijtsrd.com/humanities-and-the-arts/social-science/50458/role-of-science-and-technology-in-the-sequence-of-social-change/dr-ashutosh-tripathi
The document discusses India's goals in science, technology, and innovation (STI) to become one of the top three scientific superpowers. It highlights the importance of research and development (R&D) in renewable energy, AI, robotics, and other emerging technologies. It summarizes key aspects of the new National Education Policy (NEP) 2020 related to STI, including increasing spending on education and R&D, setting up research universities and institutions, and strengthening industry-academia collaborations. The STI policy aims to double R&D expenditure and the number of researchers over the next five years to make India self-reliant in cutting-edge technologies.
This document provides an introduction to and overview of the topics of science and technology that will be studied. It includes definitions of science, technology, and the field of science and technology studies. It also summarizes the history of science and technology as the study of how humanity's understanding of the natural world has changed over time. Additionally, it outlines India's progress in the fields of science and technology, noting its development of skills and technologies to modernize society as well as its growth in areas like energy and research publications. However, it states that India is still lagging behind countries like the US in areas such as research investment and researchers per capita.
The document discusses the contributions of science and technology to Philippine nation-building in four paragraphs. It notes that science and technology have contributed to socio-economic progress and industrialization, as well as medical advances like vaccines. Communication technology has also dramatically improved with internet and cellular access. The second paragraph highlights a government policy that provides incentives for Filipino scientists and engineers working abroad to return and contribute to the country. The third paragraph states that science and technology are relevant to nation-building as they increase efficiency and are integral to modern society. The final paragraph calls for policies to support young Filipino students and inventors in solving environmental issues.
Formulating coherent science and technology policies in nigeriaAlexander Decker
This document summarizes the history of science and technology policy in Nigeria since independence in 1960. It finds that policies have been ad-hoc and fragmented, lacking coherence and sustained focus. The first attempt at a national S&T policy was in 1966 but did not function due to civil war. Subsequent agencies and ministries in the 1970s-1980s focused on S&T but lacked longevity due to reorganizations and mergers. The document argues this is due to a lack of political will and underfunding for research. Universities expanded rapidly but without proper funding and facilities for research. Researchers face challenges of low pay and lack of maintenance that discourage retaining talent.
UNITY OF DIRECTION IN PHILIPPINE SCIENCE AND TECHNOLOGY MANAGEMENTRomeo Dignos
This document summarizes the state of science and technology in the Philippines. It finds that the Philippines invests very little in research and development, with gross expenditures on R&D representing only 0.12% of GDP, well below international standards. It also has relatively few researchers per capita. To address these issues, the current S&T management under the Department of Science and Technology is focusing research efforts and priorities on areas that can boost industry and public welfare, such as agricultural modernization, MSME productivity, ICT/BPO, e-governance, healthcare, and disaster mitigation. The goal is to better align science and technology with economic and social development through a unified strategic direction.
This document discusses Science, Technology, and Society (STS) as an interdisciplinary field of study. It defines science as understanding physical phenomena through theories and laws, while technology is the application of scientific knowledge to develop products and services. Society uses science to create better technology and meet material needs. However, science and technology can positively or negatively impact human survival, depending on how they interact with social, cultural and economic contexts. This relationship may lead to ethical dilemmas and social conflicts that students should reflect on critically.
This document discusses Science, Technology, and Society (STS) as an interdisciplinary field of study. It defines science as understanding physical phenomena through theories and laws, while technology is the application of scientific knowledge to develop products and services. Society uses science to create better technology and meet material needs. However, science and technology can positively or negatively impact human survival, depending on how they interact with social, cultural and economic contexts. This relationship may lead to ethical dilemmas and social conflicts that students should reflect on critically.
REPORT ON INNOVATION AND ENTREPRENEURSHIP FOR SUSTAINABLE GROWTH GOVERNMENT O...Harshita Bansal
This report describes the current innovation ecosystem and the challenges it faces, and it discusses the efforts made by the government towards the promotion of innovation for entrepreneurship development and sustainable growth.
The Effects of Engineering Education and Government Policy in Driving Innovation among Engineering Graduates in Nigeria by Olawale Oshokoya* in Advancements in Civil Engineering & Technology
The proposed Technology and Innovation Policy for India would aim to:
(1) Make India a developed economy through fully integrating science, technology, and innovation (STI) into national development strategies, (2) Restructure STI programs and infrastructure to better meet national needs, and (3) Orient education systems towards producing scientific human capital and accelerating a culture of STI. Key sectors like agriculture, health, and education would have targeted STI policies and goals.
The Indian government unveiled a new Science and Technology Policy in 2013 to replace the 2003 policy. The new policy was created following discussions with 5,400 representatives from industry and science. It aims to increase research for social benefit and public participation in science. The policy hopes to boost innovation, research funding, and global scientific participation to make India one of the top 5 global scientific powers by 2020 in areas like biotechnology and particle physics. However, it faces challenges in meeting funding goals and private sector involvement.
The role of science and technology in developmentJanette Balagot
The document discusses the role of science and technology in development. It states that development is a multidimensional process that involves changes to economic, social, administrative, and belief systems. Science and technology can improve welfare but may also contribute to environmental degradation and dehumanization if not implemented properly. For effective application, science and technology must be integrated into national concepts and ways of life, directed toward reducing inequalities, and implemented within a framework of social and economic rights. Universities, education, research, and infrastructure support are also needed.
Similar to The Real Facts of Science, Technology and Society in India (20)
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Describing and Interpreting an Immersive Learning Case with the Immersion Cub...Leonel Morgado
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Phenomics assisted breeding in crop improvementIshaGoswami9
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Or: Beyond linear.
Abstract: Equivariant neural networks are neural networks that incorporate symmetries. The nonlinear activation functions in these networks result in interesting nonlinear equivariant maps between simple representations, and motivate the key player of this talk: piecewise linear representation theory.
Disclaimer: No one is perfect, so please mind that there might be mistakes and typos.
dtubbenhauer@gmail.com
Corrected slides: dtubbenhauer.com/talks.html
3. Today, the word of “technology” means industrial science and is mainly
associated with major activities such as manufacturing, transportation
and communication only (2020). The technology has been, in fact,
really associated with the evolution of man starting with tools,
clothing, fire, shelter, nature and various other basic survival items
(Origin of Life). The coevolution persists and, since basic science is
now very much a part of developing technologies, the term co-
evolution of science and society which is used at times very much
implies the co-evolution of both basic science and industrial science
with society (1980- 2010).
4. Advances in technology are generally accompanied by social changes as a
consequence of changing economies and ways of carrying out life’s various
activities. An important question arises concerning how basic scientific
discoveries eventually lead to new technologies and what that may mean to
the rational support of basic research and the future of science and
technology in the developed and developing world.
Basic scientific research has made monumental contributions to technology
and national priorities. The bond between basic research and the
development of both novel and current technologies has been and is well in
place.
There is no question that science and society will continue to co-evolve.
Societies whose governments recognize the dependence of the development
of successful novel technologies on broadly supported basic research are
more likely to be healthier and economically prosperous in the future than
those that does not.
5. The intellectual roots of STS lie in the history, philosophy, and social
study of science and technology, an arena where often-controversial
issues and choices interface with values and influence public policy.
STS prepares students to understand both the technical and social
dimensions of science and technology, helps them become more
thoughtful and better-informed citizens of our high-tech society, and
develops their critical interdisciplinary thinking, research, and
communication skills. Students flourish intellectually in an
environment where critical questioning is encouraged and
opportunities for research are abundant. Govt. and Non Govt. agencies
departments guide for the benefit of students and the larger Social
community.
6. •Interdisciplinary education for life.
•Relevant to every field of study.
•A great major or double major or “the minor for all majors”
subjects and research areas.
•A way to improve your writing and communications skills,
problem-solving abilities, and ability to adapt to changes in
science and technology.
•Attractive to potential employers.
•Needed at all levels, in education, government, the private
sector, and internationally.
7. •Interdisciplinary study of the interaction of science and
technology with society and culture.
•The realization that discoveries and inventions are shaped
by historical forces and in turn influence values,
aspirations, events, and institutions, thus shaping the
course of history.
•S and T in social and cultural context.
•Both academic and activist.
8. How do we define science?
CONTENT Body of organized knowledge about nature
From Latin scientia - knowledge
METHOD Of obtaining that knowledge, experiment,
observation, hypothesis, theory, law
ATTITUDE Organized and systematic skepticism
GOALS Explanation, understanding, prediction, control
LANGUAGE Mathematics and technical vocabulary
TOOLS Uses Instruments and technologies
COMMUNITY Discipline, education, credentials,
careers, patrons, societies, “turf”
PROCESS Organized, but very diverse activity shaped by
social forces and historical change
9. Technology
a. Artifacts or Hardware. Products fabricated by
humans to meet specific needs. Tools, machines,
implements.
b. Knowledge and Methods. A system of tacit and
explicit knowledge, techniques, and materials
utilized in using, making, or repairing a certain kind
of artifact.
c. A human cultural activity or profession. e.g. military
or civil engineers, crafters, machinists.
d. A total societal enterprise. e.g. “Indian technological
know-how.” R&D, invention, patronage, mass
production and mass consumption.
10. History of S & T in INDIA
Since our independence in 1947, India has been successful in building a massive ecosystem of
science, technology and innovation (STI). An STI ecosystem includes universities, public and
private enterprises, and human resources. We have over 16,000 colleges, ~600 universities,
~2000 research and development institutes, and over 4,00,000 science professionals, as per
data collected during 2010-11 (source: www.data.gov.in). Some of the top scientists,
technologists and CEOs of the world have been beneficiaries of our science and policy
ecosystem. This has been made possible through the implementation of robust policies by
central and state governments over the years.
The Science Policy developed into the processes and institutions that go into creating policy
for science. By discussing four major policies implemented since independence
namely, Scientific Policy Resolution (SPR1958), Technology Policy
Statement 1983 (SPR1958), Science and Technology Policy 2003 (STP2003), and Science
Technology Innovation Policy 2013 (STIP2013).
11. Scientific Policy Resolution (SPR 1958)
Our first major science policy can be traced back to the year 1958. The policy document was
drafted by the government of the then Prime Minister of India, Jawaharlal
Nehru. SPR1958 laid the foundation of scientific enterprise and scientific temper in India.
Nehru had imagined India to be a welfare state. This resolution was born out of the realisation
that the creation of a welfare state was only possible through investments in science and
technology. Science and Technology would thus act as an instrument of socio-economic
transformation.
An aim to provide a reasonable amount of economic, social, cultural amenities and services to
every citizen through industrialization, investment in science and technology was critical as it
would reduce the burden on the use of raw materials and capital.
12. Technology Policy Statement (TPS 1983)
In the aftermath of passing SPR1958, India spent the next three decades building its scientific
enterprise. By the early 1980s, India had developed a strong industrial and agricultural base
and also had a large pool of trained human resources.
The primary feature of TPS1983 was technological self-reliance through promotion and
development of indigenous technologies.
Finally, TPS1983 stressed on strengthening the technology base especially in new sectors at
that time — information, electronics, and biotechnology through an increase in R&D
investments and collaboration amongst governmental organisations, educational institutions
and industries.
13. Science and Technology Policy (STP 2003)
By the turn of the millennium, India had established a sound infrastructure base in science and
technology in terms of institutions and human resources. However, it was acknowledged that
there were dramatic changes in how science was practised, how technology was developed,
how science and technology interact and how they affected society. Science was becoming
more multidisciplinary, spanning different sectors and different countries.
A significant feature of STP2003 was a process to develop mechanisms within ministries and
agencies to gather inputs from scientists and technologists vis-a-vis planning and
policymaking and a call to invest heavily into the R&D sector with an aim of increasing
investment to 2% of GDP. STP2003 recognised the need to modernise existing infrastructure
for science and engineering in academic institutions and set up new funding mechanisms for
basic research. The policy also called for the development of incentive mechanisms to attract
scientists and engineers especially of Indian origin from abroad to contribute to the
Indian STI ecosystem.
14. STP2003 was aimed at encouraging R&D and innovation in areas that impact the economy and
society, and developing mechanisms to facilitate interaction among various stakeholders
within the ecosystem. Finally, STP2003 called for cross-pollination of industry and scientific
research, and the establishment of intellectual rights regimes to protect and incentivise
inventors. It also encouraged research in management and mitigation of natural hazards. This
policy document laid special emphasis on science diplomacy, especially on international
science and technological cooperation between developing countries located in the global
south.
There was a significant rise in overall R&D investment (raise in both public as well as private
investment). At the end of the 10 year period after the adoption of the mandate of STP2003,
even though R&D investment did not reach 2% of national GDP as was called for by the
mandate, it was at a globally benchmarked figure of 0.7 % of GDP. India made a significant
jump in publication rankings. There was also a steady increase in human capacity. We started
churning out many more PhD students, more patents were filed, and more startups incubated.
15. Science, Technology and Innovation Policy (STIP 2013)
The decade of 2010 to 2020 was declared as a decade of innovation by the then Prime Minister
Manmohan Singh. It was acknowledged that in order to stay globally competitive, it was
necessary to make a transition into a knowledge-based economy.
There was a need to synergise science, technology and innovation to position India amongst
the top five global scientific powers. With this objective, the fourth policy, the STIP2013 was
implemented.
This policy document was a step in the right direction towards building a robust national
innovation ecosystem. It paved the way for promoting science and technology-led innovation
in the country by attracting private-sector contributions into the R & D ecosystem. It laid
emphasis on directing scientific discoveries and outputs of science and technology activities
towards developmental priorities in key areas (agriculture, manufacturing, water, health,
environment and infrastructure).
16. India Status…… STS
This policy also resulted in India’s increased participation in global mega-
science initiatives such as the Laser Interferometer Gravitational-Wave
Observatory (LIGO), the Large Hadron Collider (LHC — CERN), the
International Thermonuclear Experimental Reactor (ITER) and the Square
Kilometre Array (SKA), among others. However, since we are still within
the decade of innovation, an in-depth evaluation of this policy remains to be
done to understand its impact in its entirety.
19. “When R & D investments begins
to exceed capital investment, the
corporation can be said to be
shifting from a place for
production to a place for
knowledge creation”
But, 80 countries are classified
as scientifically lagging and
have no capital
RAND S & T Report 2001
Nanotechnology
Genomics
Driven R&D Reinvestment
20. Clusters of Action points
Human Resources-New paradigms in science education
Universal scientific and technical literacy
Science, its values and Societal engagement
Institutions, infrastructure and networks
Information access-particularly to scientific journals
Public/Private partnerships
Policy issues - national and international
22. Developments/Investments:
2020…..2030
With support from the Government, considerable investment and development
has incurred in different sectors such as agriculture, healthcare, space research,
and nuclear power through scientific research. For instance, India is gradually
becoming self-reliant in nuclear technology.
23.
24. Need for a major rethink at pedagogic and curricular level
Imaginative synergy with other knowledge streams
Rekindle interest in experiments and sensory observations
Restore the inspirational role of teacher-motivator & mentor
Integration with concepts of sustainable development
Learning science as an enlivening experience-neither esoteric
nor prosaic
New Paradigms in Science Education
Strengthening science education at all levels is an enabling requirement,
especially for developing nations, for a self-standing national science base.
25. Recent developments in India:
Some of the recent developments in the field of science and technology in
India are as follows:
India Space Research Organisation (ISRO) launched space technology
incubation centre in Tripura, Agartala. ISRO has planned 36 missions
including satellites and launch vehicles in FY21.
India's space business will witness tremendous growth in the next five years
on the back of technology advancement, global space business opportunity
and a sharp rise in ISRO’s satellite launch capabilities.
26. Achievements…..
Following are the achievements of the Government in the past four years:
•The first national state-of-the-art cGMP facility for production of herbal preparations was
established in CSIR-IIIM. It has a production capacity of 30,000 tablets and capsules per hour
and 500 litres of liquid per batch.
•DBT launched the DBT-BUILDER (Boost to University Interdisciplinary Departments of Life
Sciences for Education and Research) scheme to boost advanced education and promotion of
interdisciplinary research and technology development.
•The Council of Scientific and Industrial Research (CSIR) launched 30 skill/training
programmes in the areas of leather processing, paints and coatings, electroplating and metal
finishing, industrial maintenance engineering, bioinformatics, mechatronics, andglass beaded
jewellery among others.
27. Investment Scenario…….
•GridRaster Inc, working in the virtual and augmented reality space, raised US$ 2 million as seed
funding, which will be used for marketing and product development.
•In April 2020, Institute of Genomics and Integrative Biology (CSIR-IGIB) and TATA Sons
signed a memorandum of understanding (MoU) for licensing of KNOWHOW for FNCAS9
Editor Linked Uniform Detection Assay (FELUDA) for rapid diagnosis of COVID-19.
•In March 2020, Agnikul Cosmos Pvt Ltd, an IIT Madras incubated space tech start-up
developing low-cost satellite launch vehicles, raised Rs 23.4 crore (US$ 3.35 million) in a pre-
series A funding round led by pi Ventures.
•In February 2020, Capgemini announced plans to hire 30,000 employees in the country by 2021.
•In December 2019, Council of Scientific & Industrial Research (CSIR), India and the National
Centre for Scientific Research (CNRS), France signed an MoU for cooperation between the two
towards promotion and support of scientific and technological research.
28. The Road Ahead…………………..
India is aggressively working towards establishing itself as a leader in industrialization and
technological development. Significant developments in the nuclear energy sector are likely as
India looks to expand its nuclear capacity. Moreover, nanotechnology is expected to transform
India’s pharmaceutical industry. The agriculture sector is also likely to undergo a major
revamp with the government investing heavily for a technology-driven Green Revolution.
Government of India, through the Science, Technology and Innovation (STI) Policy-2013,
among other things, aspires to position India among the world’s top five scientific powers.
Indian Space Research Organisation (ISRO) will launch its first Indian human mission by
2022.
References – Media reports, Press Releases, Press Information Bureau (PIB), Union Budget 2019-20
29. Innovation & Industrial Development
National IPR Policy (2016) [DPIIT]
MSME Policy Statement (Central & States)
R&D Tax Incentives (Central & State)
Startup India Action Plan (2016) [DPIIT]
National INNOVATION and STARTUP Policy 20
19 for Students and Faculty [MHRD]
Following is a non-exhaustive (indicative) list of related policies.
30. Conclusion:
Indian STI policy is evolving fast with the changing national and international
dynamics. The four national policies discussed here were key milestones in this
journey. While these policies have had a positive influence on India’s STI ecosystem
overall, there are some targets that were missed. One of these is attaining the magic
figure of 2% of GDP investments in R&D. The reasons for this could be manifold —
inability to attract private funding, incentives being not attractive enough, or simply
discrepancies in data reporting. There are various factors which determine the
successful implementation of policies. Stable commitment and support from
changing/alternative governments, shared ownership and accountability among
various implementing agencies, and timely evaluation of policies and associated
programmes are some of the important factors in successfully achieving stated policy
objectives in India.