Bridging the Past and Present: Integrating Ancient Sciences and Mathematics into Modern Discourse

Bridging the Past and Present: Integrating Ancient Sciences and Mathematics into Modern Discourse

Dr. Saroj Nayyar¹, Ms. Samiksha Nayyar²

¹Kalinga University, Raipur, C.G.

²Vivekananda Global University, Jaipur, Rajasthan

DOI: https://doi.org/10.51244/IJRSI.2025.12050085

Received: 21 May 2025; Accepted: 25 May 2025; Published: 10 June 2025

ABSTRACT

The integration of ancient sciences and mathematics into contemporary discourse offers a transformative approach to addressing modern challenges while preserving intellectual heritage. This paper explores the significant contributions of ancient civilizations to fields such as astronomy, mathematics, medicine, engineering, and environmental science, emphasizing their relevance in today’s world. Ancient knowledge systems, from the mathematical precision of the Egyptians and the astronomical insights of the Mayans to the profound philosophical foundations of Greek and Indian scholars, laid the groundwork for modern scientific and technological advancements. By revisiting and integrating these age-old concepts, we not only honor past intellectual achievements but also inspire innovative solutions for contemporary issues such as sustainability, resource management, and technological progress. This study advocates for the incorporation of ancient knowledge into modern education and research, promoting interdisciplinary learning, fostering global collaboration, and offering insights into sustainable practices for future generations. Through a thoughtful synthesis of the past and present, the paper underscores the enduring relevance of ancient sciences and mathematics in the ongoing pursuit of knowledge.

Keywords: Ancient Sciences, Mathematics, Interdisciplinary Integration, Sustainability, Cultural Heritage

INTRODUCTION

The sciences and mathematics of ancient civilizations serve as the foundation of human intellectual development, offering profound understanding of natural phenomena, structural designs, and innovative problem-solving. From the precise geometry of Egyptian pyramids to the astronomical accuracy of Mayan calendars and the pioneering works of Indian scholars like Aryabhata and Brahmagupta, ancient knowledge systems have left an indelible mark that continues to shape modern science and technology. This paper delves into the integration of these timeless principles into contemporary discourse, emphasizing their relevance in addressing present-day challenges and driving innovation.

In today’s era of rapid technological progress and scientific discovery, the contributions of ancient knowledge systems are often underestimated or forgotten. However, a closer analysis reveals that ancient sciences were remarkably advanced, offering insights into fields such as medicine, architecture, astronomy, and mathematics. Core concepts like the decimal system, the use of zero, and the idea of infinity—integral to modern mathematics—originated from ancient Indian scholars. Similarly, significant contributions in physics, chemistry, and medicine by Greek, Chinese, and Islamic civilizations continue to resonate in contemporary practices. This study highlights the necessity of integrating ancient sciences and mathematics into modern education and research. Such integration enriches our appreciation of historical advancements while encouraging interdisciplinary approaches to learning. By acknowledging the global impact of these ancient systems, we can bridge cultural and temporal divides, fostering a more inclusive understanding of knowledge. Furthermore, ancient practices often embraced sustainability and ecological balance, offering valuable insights for addressing today’s environmental crises. Traditional construction methods, for instance, prioritized harmony with nature, providing inspiration for sustainable development. Similarly, ancient mathematical techniques often focused on intuitive and accessible problem-solving, which can enhance inclusivity in modern educational systems.

This paper posits that revisiting and incorporating ancient knowledge is not merely an academic pursuit but a necessity for contemporary progress. Integrating the wisdom of ancient sciences and mathematics into today’s context not only honors our intellectual heritage but also equips us to confront modern challenges with innovative solutions. Through this approach, the enduring relevance of ancient knowledge is preserved and revitalized for the benefit of future generations.

A suitable way to write this paper is through qualitative and historical analysis. A review should be done of old writings, recent scholarly work and existing studies about the science and math of civilizations including India, Greece, Egypt, China and the Mayans. One way to see their impact is through a comparative analysis that follows their lively influence in science nowadays. Key areas to examine are (1) organizing ancient achievements based on fields, (2) assessing their usefulness to current world issues, (3) showing examples of ancient wisdom used today and (4) making suggestions for including them in current school and research systems.

Ancient Sciences: A Comprehensive Perspective

Ancient sciences embody the ingenuity and creativity of early civilizations, showcasing their remarkable ability to interpret the world around them. Rooted in observation, empirical practices, and philosophical inquiry, these sciences were not limited to isolated regions but flourished globally, with civilizations such as the Egyptians, Indians, Chinese, Greeks, and Mesopotamians contributing foundational principles that shape modern science and technology.

In Mesopotamia, one of the cradles of civilization, advancements in astronomy, mathematics, and engineering were pivotal. The Babylonians were pioneers in developing a sexagesimal system, which forms the basis of how we measure time and angles today. Their astronomical records, combined with mathematical precision, allowed them to predict celestial events like eclipses with surprising accuracy. Mesopotamian innovations, such as the wheel and early irrigation systems, revolutionized agriculture and transportation, demonstrating their understanding of mechanics and hydrology.

Ancient Egyptian sciences were equally transformative, particularly in medicine, chemistry, and architecture. They mastered embalming techniques, creating mummies that have endured for millennia, indicative of their understanding of chemical preservation. Their architectural achievements, such as the pyramids and temples, reflect their deep knowledge of geometry and material science. The alignment of their structures with celestial bodies also underscores their sophisticated grasp of astronomy.

Ancient Greek science marked a transition to systematic inquiry and theory-based exploration. Philosophers like Aristotle and Plato delved into natural philosophy, setting the stage for scientific reasoning. Mathematicians like Euclid and Archimedes laid the groundwork for geometry and mechanics, while Hippocrates established principles of medicine that emphasized diagnosis and treatment based on observation and logic.

China’s contributions to ancient sciences were both diverse and impactful. Innovations such as papermaking, gunpowder, and the printing press revolutionized communication and technology. Their advances in herbal medicine and acupuncture reflected a holistic understanding of the body and its connection to nature. Early seismographs and compasses demonstrated a profound grasp of geology and magnetism.

Meanwhile, the Indian subcontinent gave rise to a rich legacy of science and mathematics. The concepts of zero and infinity, pioneered by scholars like Aryabhata and Brahmagupta, transformed mathematical computation. The science of metallurgy flourished, with examples like the rust-resistant Iron Pillar of Delhi standing as a testament to their advanced techniques. Indian astronomy, as detailed in texts like the Surya Siddhanta, provided models for planetary motion and time measurement that influenced later Islamic and European astronomers.

Ancient sciences were not limited to practical applications; they were deeply intertwined with philosophy, spirituality, and ethics. Knowledge was seen as a means to harmonize with the universe, fostering sustainability and coexistence. Many ancient systems emphasized the cyclic nature of life, the balance of elements, and respect for the environment—principles that resonate with modern ecological and sustainability efforts.

By rediscovering and integrating ancient sciences into contemporary education and research, we can gain a deeper appreciation for the intellectual achievements of our ancestors. These timeless contributions are more than historical curiosities; they offer valuable lessons, methods, and philosophies that can inform innovative approaches to today’s scientific and societal challenges. Through this lens, ancient sciences become a bridge connecting the wisdom of the past with the aspirations of the future.

Ancient Mathematics: The Birthplace of Numerical Thought

Ancient mathematics is a testament to humanity’s enduring quest to understand and quantify the world. It forms the foundation of modern mathematical systems, evolving from practical needs such as trade, agriculture, construction, and astronomy into a sophisticated intellectual discipline. Civilizations across the globe made significant contributions to the development of mathematics, creating frameworks and concepts that continue to influence contemporary science, technology, and education.

The ancient Egyptians were among the earliest practitioners of mathematics, developing systems to address practical problems like land measurement and resource management. Using hieroglyphs to represent numbers, they employed a decimal system and created techniques for basic arithmetic, geometry, and algebra. Their ability to calculate areas, volumes, and slopes is evident in the construction of the pyramids, where mathematical precision ensured the stability and alignment of these massive structures.

In Mesopotamia, the Babylonians developed an advanced base-60 (sexagesimal) numerical system, which remains influential in how we measure time (seconds and minutes) and angles (degrees). They created comprehensive mathematical tables for multiplication, division, and square roots, enabling them to solve quadratic and cubic equations. Babylonian records on clay tablets reveal a deep understanding of geometry and the early principles of trigonometry.

Ancient Indian mathematics reached remarkable heights, with scholars like Aryabhata, Brahmagupta, and Bhaskara making transformative contributions. The concept of zero as a numeral, crucial for arithmetic and algebra, originated in India. Indian mathematicians also introduced the decimal system and methods for solving linear and quadratic equations. Texts like the Sulbasutras detail early geometry for religious and architectural purposes, while Aryabhata’s Aryabhatiya explores trigonometric functions and approximations of pi.

Greek mathematics transitioned from practical problem-solving to theoretical exploration. Pioneers like Pythagoras, Euclid, and Archimedes laid the groundwork for geometry, number theory, and mechanics. Euclid’s Elements remains one of the most influential mathematical texts, offering a systematic approach to geometric principles. Archimedes’ work on calculus-like methods and the estimation of areas and volumes demonstrated an advanced understanding of mathematics’ potential.

Chinese mathematicians also contributed significantly to ancient mathematics, particularly in solving practical and theoretical problems. The Nine Chapters on the Mathematical Art, a seminal text, outlined methods for solving equations, calculating areas and volumes, and understanding ratios and proportions. The ancient Chinese also developed early Pascal’s triangle concepts and made strides in algebra and number theory.

In the Islamic Golden Age, scholars synthesized knowledge from Greek, Indian, and Persian sources, advancing algebra, geometry, and trigonometry. Al-Khwarizmi, often called the “father of algebra,” introduced systematic methods for solving linear and quadratic equations. His works popularized the use of Arabic numerals, which are now standard worldwide. Islamic mathematicians also refined trigonometric functions, developing tools for astronomy and navigation.

Ancient mathematics extended beyond arithmetic and geometry; it was a tool for understanding natural phenomena, exploring philosophy, and organizing societies. It embodied a blend of logic, intuition, and creativity, often intertwined with cultural, spiritual, and practical contexts.

The legacy of ancient mathematics is evident in its enduring concepts, such as the Pythagorean theorem, algebraic principles, and numerical systems. Revisiting these contributions offers insight into the origins of modern mathematical thought and inspires innovative approaches to current challenges. Ancient mathematics stands as a testament to human ingenuity and the universal pursuit of knowledge.

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Detailed Case Studies of Ancient Innovations

• Case Studies of Ancient Engineering Marvels: Explore in depth specific examples of ancient structures such as the Egyptian Pyramids, Roman aqueducts, Greek temples, and Indian stepwells. Highlight how these constructions were designed and built using principles that can be applied today in sustainable architecture and engineering.
• Revisiting Ancient Medical Practices: Dive deeper into specific case studies of ancient medical practices (e.g., Ayurveda, Traditional Chinese Medicine, Greek medicine) and compare them to modern treatments. Discuss how these systems were ahead of their time in understanding the human body and its connection to the environment.

Comparative Analysis of Ancient and Modern Scientific Discoveries

• Ancient Astronomy vs Modern Astrophysics: Explore how ancient civilizations, like the Babylonians, Greeks, and Mayans, developed astronomical models and how they relate to current understanding in astrophysics and cosmology.
• Mathematics in Ancient Cultures: A detailed comparison of how different ancient civilizations approached mathematics (e.g., Vedic Mathematics in India, Babylonian algebra, Greek geometry) and how these ideas influenced modern mathematical thought.

Impact of Ancient Mathematics on Modern Technology

• Artificial Intelligence and Ancient Algorithms: Examine how ancient methods of problem-solving, particularly from Indian or Islamic scholars, can inspire innovations in modern AI, machine learning, and cryptography.
• Algorithmic Efficiency and Ancient Computational Techniques: Expand on the idea of Vedic mathematics and other ancient algorithms, exploring their applications in contemporary computational models.

Ancient Ecological and Environmental Knowledge

• Ancient Water Management Systems: Discuss the extensive knowledge that ancient civilizations had regarding water management and sustainable agricultural practices. Compare these methods to modern approaches and how they can be adapted for addressing today’s water scarcity issues.
• Holistic Environmental Management: Explore how ancient systems, like the Mayan agricultural terraces or the water conservation methods in ancient India, reflect a deep understanding of ecosystem balance and can inform contemporary environmental policy.

Ancient Philosophies and Their Influence on Modern Scientific Thought

• Philosophy of Science in Ancient Civilizations: Explore how ancient philosophies, such as Greek natural philosophy, Indian Vedanta, and Chinese Daoism, influenced the development of scientific thought and methodology.
• The Intersection of Religion, Philosophy, and Science: Investigate how religion and spirituality were often intertwined with scientific practices in ancient civilizations, providing a holistic understanding of nature and the cosmos.

Cultural and Intellectual Exchange Between Civilizations

• Cross-Cultural Scientific Advancements: Detail the transfer of knowledge between civilizations. For example, how Greek scientific ideas influenced Islamic scholars during the Golden Age, which then impacted European science during the Renaissance.
• Global Contributions to Mathematics and Science: Highlight lesser-known civilizations that contributed significantly to science, such as the Indus Valley Civilization’s urban planning or the advancements in metallurgy in Ancient China, and how these contributions have shaped modern technological development.

Modern Educational Systems and Ancient Knowledge

• Incorporating Ancient Knowledge into STEM Education: Explore how incorporating ancient sciences and mathematics can revitalize STEM education by fostering critical thinking, creativity, and global awareness among students.
• Interdisciplinary Learning Models: Discuss the importance of creating interdisciplinary curricula that combine ancient knowledge with modern subjects like engineering, physics, and computer science to create well-rounded learners.

Modern Scientific Discoveries that Echo Ancient Knowledge

• Reinvention of Ancient Concepts: Explore modern scientific discoveries or innovations that seem to echo or reinforce ancient ideas, such as the discovery of zero and infinity or the re-emergence of interest in traditional herbal remedies.
• Modern Sustainability Inspired by Ancient Practices: Further elaborate on how ancient practices, such as permaculture and sustainable building techniques, are being rediscovered and implemented in contemporary sustainability efforts.

Challenges in Integrating Ancient Knowledge into Modern Practices

• Barriers to Reviving Ancient Knowledge: Discuss the challenges that scholars face in decoding, preserving, and integrating ancient texts and methods into modern research and education, such as language barriers, lack of resources, and cultural biases.
• Misinterpretation of Ancient Knowledge: Address the potential risks of misinterpreting or oversimplifying ancient systems when integrating them into modern discourse.

The Role of Technology in Reviving Ancient Knowledge

• Advancements in Technology for Decoding Ancient Texts: Expand on the role of technologies like AI, machine learning, and natural language processing in decoding ancient languages and scripts, and how these technologies are making previously inaccessible knowledge available.
• Virtual Reality and 3D Modeling of Ancient Structures: Discuss the impact of technologies such as 3D modeling and VR in understanding ancient architectural feats and simulating ancient environments for research and education purposes.

Future Prospects: Ancient Knowledge and the Modern World

• The Future of Ancient Knowledge in Modern Innovation: Explore the future potential of ancient sciences and mathematics in addressing global challenges such as climate change, energy crises, and sustainable living.
• Revitalizing Cultural Heritage Through Education and Technology: Discuss how educational systems can harness technology and ancient knowledge to foster a deeper understanding of our global heritage, shaping future generations of scientists, engineers, and innovators.

Integrating Ancient Sciences and Mathematics into Modern Discourse

Integrating ancient sciences and mathematics into modern discourse bridges the gap between historical knowledge and contemporary innovation. This approach emphasizes the timeless relevance of ancient contributions and highlights their potential to address current challenges in science, technology, education, and sustainability. The integration of these ideas fosters interdisciplinary learning, promotes cultural appreciation, and inspires innovative thinking.

Ancient sciences and mathematics were inherently practical, addressing the needs of their time while laying the groundwork for future advancements. For instance, the ancient Indian concept of zero revolutionized computation, while the Babylonian base-60 system continues to influence time and angle measurement. Incorporating these foundational principles into modern education enriches curricula by providing historical context and demonstrating the interconnected evolution of knowledge systems across cultures.

One significant area of integration is in sustainable development. Ancient sciences often embraced ecological harmony and efficient resource management, offering valuable lessons for today’s environmental challenges. Traditional construction methods, such as using locally available, eco-friendly materials, can inspire modern sustainable architecture. Similarly, ancient agricultural practices, like crop rotation and water conservation techniques, hold the potential to enhance contemporary farming in the face of climate change.

Modern technology and computational tools make it possible to revisit ancient texts, models, and theories in ways that were previously unimaginable. For example, computational methods can simulate ancient engineering marvels, such as the pyramids or Roman aqueducts, to uncover insights into their construction techniques and materials. Digital archives of ancient manuscripts enable broader access to historical knowledge, fostering a global dialogue on its relevance.

Integrating ancient mathematics into modern research can enhance problem-solving and innovation. Concepts such as Vedic mathematics, known for its intuitive and efficient calculation methods, have applications in modern algorithms and computational mathematics. Similarly, ancient astronomical observations, like those from Mayan or Indian civilizations, can complement modern space research and data analysis.

In education, emphasizing ancient sciences and mathematics can inspire students by showcasing the universal and collaborative nature of human knowledge. It demonstrates how diverse cultures have contributed to our understanding of the world, fostering an appreciation for multicultural perspectives and promoting inclusivity in learning.

Ultimately, integrating ancient sciences and mathematics into modern discourse is not merely an academic exercise; it is a practical imperative. By combining the wisdom of the past with the tools and knowledge of the present, we can address complex global challenges, inspire innovation, and preserve a legacy of intellectual heritage for future generations. This synthesis ensures that the contributions of ancient thinkers remain a vital part of humanity’s ongoing pursuit of knowledge.

Key Benefits and Approaches to Integrating Ancient Sciences and Mathematics into Modern Discourse

Educational Enrichment

Integrating ancient sciences and mathematics provides invaluable historical context, offering insights into the evolution of fundamental principles that underpin modern knowledge. By tracing the origins of concepts in fields such as geometry, astronomy, and arithmetic, learners gain a deeper appreciation for the cumulative nature of human intellect. This approach encourages interdisciplinary connections, linking ancient methodologies with contemporary practices in physics, engineering, and computation, thereby fostering innovative problem-solving. Moreover, exposing students to diverse intellectual traditions inspires curiosity and creativity, highlighting the universal and collaborative essence of knowledge. This not only enriches education but also nurtures a broader, more inclusive perspective.

Sustainability and Environmental Solutions

Integrating ancient ecological practices offers valuable solutions for modern sustainability challenges. For example, ancient water harvesting methods like stepwells in India and sustainable farming techniques, such as permaculture in Mesopotamia, can inspire contemporary environmental management. Revitalizing eco-friendly architectural practices, such as the passive cooling systems of ancient Persian wind towers, provides energy-efficient solutions for modern buildings. Additionally, incorporating traditional herbal medicines and holistic health practices, like Ayurveda and Traditional Chinese Medicine, into contemporary healthcare systems can offer alternative treatments that emphasize balance and prevention. These integrations not only promote sustainability but also foster a holistic approach to modern living.

Technological Advancements

Integrating ancient engineering insights with modern technology leads to innovative advancements. For example, the durability of Roman concrete and the advanced techniques of Indian iron metallurgy can inform the development of stronger, more sustainable materials in modern construction and manufacturing. Revisiting ancient astronomical models, such as those from Indian and Greek civilizations, can enhance modern space exploration and satellite positioning systems, improving accuracy and efficiency. Additionally, ancient computational techniques like Vedic mathematics, known for its efficient mental calculation methods, can be adapted to optimize algorithms in artificial intelligence and cryptography, offering powerful tools for today’s technological challenges.

Cultural and Intellectual Awareness

Integrating ancient sciences and mathematics promotes inclusivity by recognizing the global contributions of diverse civilizations to human knowledge. It fosters a cross-cultural understanding of how different societies approached and solved universal challenges, enriching our collective intellectual heritage. By studying these ancient systems, we not only acknowledge their relevance but also appreciate the unique perspectives each culture brought to science and mathematics. Furthermore, preserving intangible cultural heritage through the digitization of ancient manuscripts and artifacts ensures that this knowledge remains accessible for future generations, enabling a deeper connection to the wisdom of the past while fostering cultural appreciation and respect.

Practical Applications in Modern Research

Integrating the intuitive problem-solving approaches of ancient mathematics into modern computational methods and educational models enhances both efficiency and accessibility. By incorporating techniques from systems like Vedic mathematics, we can streamline algorithms and improve computational processes. Additionally, exploring ancient medical texts, such as Ayurveda and Traditional Chinese Medicine, provides valuable insights into natural treatments and holistic therapies that can complement contemporary healthcare practices. Applying ancient principles of geometry and symmetry, seen in architectural marvels like the Parthenon or Indian temples, to modern design and architecture can create structures that are not only aesthetically pleasing but also harmonious with their environment.

Innovation in Modern Science

Leveraging ancient models for renewable energy, such as wind and watermills, offers cost-effective, sustainable solutions for modern energy needs. These time-tested technologies can be adapted to harness natural resources efficiently, reducing reliance on fossil fuels. Combining ancient weather prediction techniques with modern meteorology enhances forecasting accuracy by incorporating intuitive, observational methods with advanced computational models. Additionally, studying ancient ecological systems—such as traditional agricultural practices or sustainable forest management—can inform the design of resilient ecosystems in urban planning. By integrating these systems, we can create cities that are not only more sustainable but also better adapted to climate change and environmental challenges.

Digital and Technological Tools for Integration

Using AI to decode and translate ancient scripts significantly expands access to historical knowledge, making it easier to interpret and preserve ancient texts that were once inaccessible. Virtual simulations of ancient structures, such as the Pyramids or Roman aqueducts, allow us to better understand their engineering marvels and construction techniques, providing insights into their durability and design. Additionally, developing digital repositories of ancient scientific texts enables interdisciplinary research, connecting scholars from diverse fields like archaeology, history, and engineering. This digital preservation not only safeguards these valuable resources but also facilitates global collaboration, fostering a deeper appreciation for ancient contributions to modern knowledge.

Integrating ancient sciences and mathematics into modern discourse not only honors the contributions of past civilizations but also enriches present and future innovations. It serves as a reminder that knowledge is a cumulative effort, with lessons from history holding keys to solving today’s most pressing challenges.

CONCLUSION

The integration of ancient sciences and mathematics into modern discourse is more than a scholarly exercise—it is a vital step toward creating a more sustainable, inclusive, and innovative future. By examining the contributions of ancient civilizations, we gain a deeper understanding of the intellectual foundations that have shaped contemporary science and technology. Ancient systems of knowledge were not only advanced for their time but also contain timeless principles that can guide us in addressing today’s global challenges, from climate change to technological advancement. The ability to decode and incorporate ancient wisdom into modern educational frameworks, research, and policy-making will ensure that we are not only preserving our intellectual heritage but also enriching the problem-solving capacity of future generations. Furthermore, solutions to the interdisciplinary approach to learning and the global exchange of ideas that ancient knowledge fosters will lead to a more connected and harmonious world. Ultimately, the wisdom of the past, when integrated with the tools and insights of the present, offers powerful the complex challenges of the future, demonstrating that ancient knowledge is not just a relic of the past but a living, evolving resource for innovation and progress.

REFERNCES

1. Bashkar, R., & Saini, S. (2003). The role of ancient Indian mathematics in the development of algebra. Indian Journal of Mathematics, 19(4), 203-218.
2. Battiste, M. (2002). Indigenous knowledge and pedagogy in First Nations education: A literature review with recommendations. National Working Group on Education and the Minister of Indian Affairs.
   https://www.afn.ca/uploads/files/education/24._2002_oct_marie_battiste_indigenousknowledgeandpedagogy_lit_review_for_min_working_group.pdf
3. Chopra, A. (2018). Integrating traditional knowledge systems into modern education: A cross-cultural approach. Journal of Educational Research, 31(2), 112-130.
4. Dandekar, A. R. (2005). The mathematics of the ancient Indian scholars: Aryabhata and Brahmagupta. Indian Mathematical Society, 14(3), 45-61.
5. Ghosh, S. (2016). Sustainability lessons from ancient architecture: Case studies from Egypt, Persia, and India. Journal of Architectural History, 48(1), 65-84.
6. Government of India. (2020). National Education Policy 2020. Ministry of Human Resource Development.
   https://www.education.gov.in/sites/upload_files/mhrd/files/NEP_Final_English_0.pdf
7. Gupta, R. K., & Singh, N. (2011). Astronomy and mathematics in ancient India: Aryabhata and the Surya Siddhanta. Indian Journal of Astronomy, 25(3), 223-239.
8. Hamid, A., & Bhatia, M. (2019). The revival of ancient ecological systems in modern urban planning. Journal of Environmental Sustainability, 15(2), 111-128.
9. Jain, M., & Agrawal, R. (2019). Reviving traditional Indian knowledge through education: A holistic approach. Journal of Indian Education, 45(1), 5–16.
10. Kumar, P. (2017). Revisiting Vedic mathematics for contemporary algorithm design. Journal of Computational Mathematics, 33(2), 143-157.
11. Kumar, K., & Singh, A. (2018). Integrating indigenous knowledge systems into education: Challenges and strategies. International Journal of Educational Development, 61, 94–102.https://doi.org/10.1016/j.ijedudev.2017.12.004
12. Lee, M. H., & Williams, T. (2014). Ancient Greek mathematics and its influence on modern geometric theory. Mathematical Review, 51(5), 320-334.
13. Mehta, A., & Sethi, P. (2020). Holistic health practices in ancient civilizations and their modern applications. Journal of Alternative Medicine, 22(1), 38-49.
14. Murthy, R., & Sharma, G. (2015). Relevance of ancient engineering techniques in modern architecture: Lessons from the Egyptians and Romans. Journal of Architectural Design and Engineering, 22(4), 287-301.
15. Naik, S. (2012). The significance of zero and infinity in ancient Indian mathematics. Journal of Mathematical History, 6(3), 77-93.
16. Patel, R. (2013). Ancient Chinese innovations in medicine and their integration into contemporary health practices. Journal of Traditional Medicine, 11(2), 204-219.
17. Singh, H. P., & Gupta, S. (2018). The impact of Babylonian mathematics on modern timekeeping and geometry. Mathematics and Science History Journal, 30(1), 98-110.
18. UNESCO. (2003). Convention for the Safeguarding of the Intangible Cultural Heritage.
    https://ich.unesco.org/en/convention
19. White, P., & Larson, D. (2010). The contributions of ancient civilizations to modern physics and engineering. Journal of Historical Science, 40(6), 214-227.