Physics Nobel Laureates at a Glance (1901–2024): For UPSC, SSC & Other Exams
📘 Note to Readers
Thank you for taking the time to explore this comprehensive timeline of the Nobel Prize in Physics (1901–2024). This post is a tribute to the brilliant minds whose groundbreaking discoveries have shaped our understanding of the universe.
Whether you’re a student, educator, researcher, or simply a curious learner, I hope this chronological journey through the history of physics inspires you as much as it inspired me while creating it.
This compilation aims to be accurate, accessible, and academically useful. If you find it helpful, please feel free to share it with others who might benefit. And if you spot anything that could be improved or updated, your feedback is most welcome.
📩 Feedback can be sent to my email: arun7663@gmail.com
Let this be more than just a list—let it be a spark for learning, exploration, and awe at the incredible achievements of science.
Warm regards,
arunsingha
Author & Curator of this Post
🌐 https://arunsingha.in
Introduction: A Legacy of Scientific Excellence
🕰️ The Origins of the Nobel Prize in Physics
The Nobel Prize in Physics, first awarded in 1901, is rooted in the legacy of Alfred Nobel (1833–1896)—a Swedish chemist, engineer, inventor, and industrialist best known for inventing dynamite. Despite amassing great wealth from his inventions and industries, Nobel was deeply concerned about how history would remember him, especially as a “merchant of death” due to his explosives.
A turning point came when Alfred’s brother Ludvig died in 1888. A French newspaper mistakenly published an obituary for Alfred instead, titled “The Merchant of Death is Dead.” It deeply affected Nobel. He decided to dedicate his fortune to a more meaningful legacy—recognizing those who benefit humanity through science, literature, and peace.
📜 The Will of Alfred Nobel (1895)
On November 27, 1895, Alfred Nobel signed his last will and testament at the Swedish–Norwegian Club in Paris. In it, he specified that his fortune should be used to establish prizes for those who had “conferred the greatest benefit to .”
Here’s a direct excerpt from Nobel’s will:
“The whole of my remaining realizable estate shall be dealt with in the following way: the capital, invested in safe securities, shall constitute a fund, the interest on which shall be annually distributed in the form of prizes to those who, during the preceding year, shall have conferred the greatest benefit to the world.”
🧪 The Five Original Nobel Prize Categories (Established in 1901)
Alfred Nobel specified five categories in his will:
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Physics – for the most important discovery or invention in the field of physics.
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Chemistry – for achievements in the chemical sciences.
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Physiology or Medicine – for breakthroughs in biology, health, and medical research.
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Literature – for the most outstanding work of an idealistic nature.
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Peace – for work in promoting peace and resolving conflict.
🟡 A sixth prize, the Sveriges Riksbank Prize in Economic Sciences in Memory of Alfred Nobel, was added in 1969 by Sweden’s central bank. While not part of Nobel’s original will, it follows the same rules and is often regarded as a Nobel Prize.
⚛️ Why Physics Holds a Place of Great Importance
Physics was one of Nobel’s personal interests. He held over 350 patents, many of them rooted in physical science. Nobel believed that advancements in physics directly lead to technological progress, industrial innovation, and deeper understanding of nature. That’s why Physics tops the list in his will.
🥇 The First Nobel Prize in Physics (1901):
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Winner: Wilhelm Conrad Röntgen (Germany)
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Discovery: X-rays
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Significance: Revolutionized medicine and diagnostics. Hospitals worldwide adopted X-ray machines soon after.
📘 Supporting Documents and Historical Records
You can explore these authoritative sources for original documents and further history:
📄 Official Text of Alfred Nobel’s Will:
📚 Nobel Prize History:
🌍 Nobel Prize’s Global Impact
Today, the Nobel Prize in Physics continues to honor the world’s most influential physicists—from quantum mechanics pioneers to those exploring the cosmos. It’s a powerful symbol of scientific excellence, global recognition, and human advancement.
🧭 Structure & Criteria: How the Nobel Prize in Physics Is Awarded
The Nobel Prize in Physics is awarded based on a rigorous, multi-layered process that ensures only the most groundbreaking, peer-validated work is recognized. Here’s how it works—from nomination to selection—and what makes a discovery prize-worthy.
🏛️ Who Awards the Prize?
The Royal Swedish Academy of Sciences is responsible for selecting the Nobel Laureates in Physics. The Academy operates independently but follows the framework established by Alfred Nobel’s will.
📅 Timeline: From Nomination to Award
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Invitation to Nominate (September)
Each year, thousands of qualified individuals and institutions receive formal invitations to submit nominations. These include:-
Nobel Laureates
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Leading professors of physics
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Select members of scientific academies worldwide
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Heads of major physics research organizations
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Nomination Deadline (January 31)
All nominations must be submitted by this date. Self-nominations are not accepted. -
Review & Evaluation (February–September)
The Nobel Committee for Physics reviews nominations, consults with experts, and prepares a shortlist. Evaluation is done in strict confidence. -
Final Decision (October)
The Royal Swedish Academy of Sciences votes on the recommendation. The decision must be passed by a majority vote. -
Announcement & Award (December 10)
Winners are announced in early October and receive their prizes in a grand ceremony on December 10—the anniversary of Alfred Nobel’s death.
🧠 What Qualifies for the Nobel Prize in Physics?
To be considered, a discovery or invention must meet key criteria:
✅ Originality & Innovation
The work must be truly original, opening new frontiers in physics or significantly enhancing existing knowledge.
✅ Scientific Significance
It must answer a fundamental question or solve a major problem in physics—something that changes how we understand nature.
✅ Proven Impact
The discovery must be verified, often by repeated experiments or peer-reviewed publications, and should have practical or theoretical value.
✅ Time-Tested
Many Nobel Prizes are awarded years or even decades after a discovery to ensure its significance stands the test of time.
🧑🔬 Individual vs. Shared Prizes
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A Nobel Prize in Physics can be awarded to a maximum of three individuals in a given year.
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It can also be shared between researchers working on related aspects of a discovery.
🌍 Inclusivity & Global Recognition
The selection process is international, and laureates are chosen regardless of nationality, gender, or political views. What matters is the scientific contribution to humanity.
This structured and impartial process ensures that the Nobel Prize in Physics remains a global benchmark of scientific excellence.

🕰️ Era of Foundations: Nobel Prize in Physics (1901–1930)
The Dawn of Scientific Discovery and the Birth of Quantum Thought
🔬 Pioneering Discoveries (1901–1930)
The Birth of the Nobel Prize in Physics and the Foundations of Modern Science
This era witnessed some of the most fundamental breakthroughs in physics—laying the groundwork for quantum theory, atomic models, and radiation studies. These laureates were true pioneers, pushing the limits of knowledge at the dawn of the 20th century.
📘 Early Atomic and Radiation Breakthroughs (1901–1915)
| Year | Laureate(s) | Country | Discovery/Invention | Significance |
|---|---|---|---|---|
| 1901 | Wilhelm Conrad Röntgen | Germany | Discovery of X-rays | Revolutionized medical imaging and atomic physics. |
| 1902 | Hendrik A. Lorentz, Pieter Zeeman | Netherlands | Zeeman Effect | Advanced atomic structure and electromagnetic theory. |
| 1903 | Antoine H. Becquerel, Pierre & Marie Curie | France | Radioactivity | Opened new avenues in nuclear physics and chemistry. |
| 1904 | Lord Rayleigh (John William Strutt) | UK | Discovery of argon gas | Supported theories of atomic structure and gases. |
| 1905 | Philipp Lenard | Germany | Research on cathode rays | Paved way for understanding electron behavior. |
| 1906 | J. J. Thomson | UK | Discovery of the electron | Marked the beginning of particle physics. |
| 1907 | Albert A. Michelson | USA | Optical instruments & light speed | Enabled modern metrology. |
| 1908 | Gabriel Lippmann | France | Color photography | Advanced optical physics. |
| 1909 | Guglielmo Marconi, Karl F. Braun | Italy/Germany | Wireless telegraphy | Foundation of radio communication. |
| 1910 | Johannes Diderik van der Waals | Netherlands | State equation for gases/liquids | Key to thermodynamics. |
| 1911 | Wilhelm Wien | Germany | Law of thermal radiation | Basis for quantum physics. |
| 1912 | Nils Gustaf Dalen | Sweden | Automatic gas regulators | Improved lighthouse safety. |
| 1913 | Heike Kamerlingh Onnes | Netherlands | Superconductivity | Milestone in cryogenics. |
| 1914 | Max von Laue | Germany | X-ray diffraction | Birth of crystallography. |
| 1915 | William H. & William L. Bragg | UK | X-ray crystal analysis | Shaped structural physics. |
🌌 Quantum Theory and Atomic Structure (1916–1930)
| Year | Laureate(s) | Country | Discovery/Invention | Significance |
|---|---|---|---|---|
| 1917 | Charles Glover Barkla | UK | Characteristic X-rays | Advanced atomic composition studies. |
| 1918 | Max Planck | Germany | Quantum theory | Father of quantum physics. |
| 1919 | Johannes Stark | Germany | Doppler effect in canal rays | Progressed atomic physics. |
| 1920 | Charles E. Guillaume | Switzerland | Invar alloy | Crucial in precision instruments. |
| 1921 | Albert Einstein | Germany | Photoelectric effect | Basis of quantum mechanics. |
| 1922 | Niels Bohr | Denmark | Atomic structure | Key architect of quantum atom model. |
| 1923 | Robert A. Millikan | USA | Electron charge measurement | Strengthened atomic theory. |
| 1924 | Manne Siegbahn | Sweden | X-ray spectroscopy | Advanced atomic studies. |
| 1925 | James Franck, Gustav Hertz | Germany | Electron collisions in gases | Confirmed quantized energy levels. |
| 1926 | Jean Baptiste Perrin | France | Brownian motion validation | Proof of molecular theory. |
| 1927 | Arthur H. Compton | USA | Compton Effect | Proved light’s particle nature. |
| 1928 | Owen W. Richardson | UK | Thermionic emission | Key to early electronics. |
| 1929 | Louis de Broglie | France | Wave nature of electrons | Introduced wave-particle duality. |
| 1930 | C. V. Raman | India | Raman Effect | Foundation of molecular spectroscopy. |
🌟 Highlights of This Era:
- First Indian Nobel Laureate in Physics: C. V. Raman (1930)
- First female Physics Nobel Laureate: Marie Curie (1903)
- Quantum theory took its roots with Planck (1918) and Einstein (1921)
- Technologies like X-rays, radio, and crystallography began to emerge

🌟 Golden Age of Modern Physics: Nobel Prize Winners (1931–1960)
Revolutionizing Our Understanding of the Universe
The period from 1931 to 1960 marked a turning point in the history of physics. This era witnessed groundbreaking developments in quantum mechanics, nuclear physics, and particle theory. Many Nobel Prizes awarded during this time laid the foundation for the technologies and theories that continue to shape modern science today. Here’s a look at the laureates who defined this golden age:
🏆 Nobel Laureates in Physics (1931–1960)
| Year | Laureate(s) | Country | Discovery / Contribution | Significance |
|---|---|---|---|---|
| 1932 | Werner Heisenberg | Germany | Creation of quantum mechanics | Pioneered a new way to understand atomic behavior |
| 1933 | Erwin Schrödinger & Paul A.M. Dirac | Austria, UK | Formulation of wave mechanics and relativistic quantum theory | Key pillars of quantum physics |
| 1935 | James Chadwick | UK | Discovery of the neutron | Opened doors to nuclear fission |
| 1938 | Enrico Fermi | Italy | Induced radioactivity by neutron bombardment | Essential step toward nuclear energy |
| 1945 | Wolfgang Pauli | Austria | Exclusion principle | Explained electron configuration in atoms |
| 1949 | Hideki Yukawa | Japan | Prediction of the meson | First Japanese Nobel Laureate in Physics |
| 1954 | Max Born & Walther Bothe | Germany | Statistical interpretation of wavefunction; coincidence method | Core of quantum theory experiments |
| 1956 | William Shockley, John Bardeen & Walter Brattain | USA | Invention of the transistor | Sparked the digital revolution |
| 1957 | Chen Ning Yang & Tsung-Dao Lee | China/USA | Parity violation in weak interactions | Changed fundamental laws of physics |
| 1960 | Donald A. Glaser | USA | Invention of the bubble chamber | Revolutionized particle detection |
🧠 Did You Know?
The transistor, awarded in 1956, made modern computers and smartphones possible. It’s one of the most impactful inventions ever recognized by the Nobel Prize in Physics.
Wonderful! Let’s continue the journey through time with the next powerful phase in physics history.
🚀 The Space and Particle Era: Nobel Prize Winners (1961–1990)
Exploring the Cosmos and Cracking the Code of Matter
From the early 1960s through the end of the Cold War, physics entered a thrilling phase. This era was driven by discoveries in cosmology, particle physics, astrophysics, and quantum field theory. Scientists probed the deep structure of matter and ventured beyond the Earth’s boundaries into space science. The Nobel Prize in Physics during this era celebrated the expansion of human understanding—from the tiniest subatomic particles to the vastness of space.
🏆 Nobel Laureates in Physics (1961–1990)
| Year | Laureate(s) | Country | Discovery / Contribution | Significance |
|---|---|---|---|---|
| 1963 | Maria Goeppert Mayer & J. Hans D. Jensen | USA, Germany | Nuclear shell model | Key to understanding atomic nuclei |
| 1965 | Richard Feynman, Julian Schwinger & Sin-Itiro Tomonaga | USA, Japan | Quantum electrodynamics (QED) | Unified theory of light and matter |
| 1969 | Murray Gell-Mann | USA | Classification of elementary particles (quarks) | Foundation of particle physics |
| 1974 | Martin Ryle & Antony Hewish | UK | Discoveries in radio astronomy, pulsars | Unveiled mysteries of deep space |
| 1978 | Arno Penzias & Robert Wilson | USA | Discovery of cosmic microwave background radiation | Strong evidence for Big Bang theory |
| 1980 | James Cronin & Val Fitch | USA | CP violation in particle physics | Showed asymmetry between matter and antimatter |
| 1984 | Carlo Rubbia & Simon van der Meer | Italy, Netherlands | Discovery of W and Z bosons | Confirmed Standard Model of particle physics |
| 1988 | Leon Lederman, Melvin Schwartz & Jack Steinberger | USA | Neutrino beam method and discovery of muon neutrino | Advanced our knowledge of neutrinos |
| 1990 | Jerome I. Friedman, Henry W. Kendall & Richard E. Taylor | USA | Deep inelastic scattering experiments | Proved the existence of quarks |
🌌 Did You Know?
The discovery of the cosmic microwave background in 1978 gave physical evidence to the origin of the universe—something previously only theorized.

🧬 Quantum Technologies & the Expanding Universe: Nobel Prize Winners (1991–2010)
From Quantum Frontiers to Cosmic Revelations
The period from 1991 to 2010 marked a new wave of breakthroughs. Physicists delved deeper into the quantum realm, developing revolutionary technologies and exploring dark energy, the accelerating universe, and condensed matter systems. This era saw the rise of precision measurements, quantum optics, and an ever-increasing curiosity about the cosmos.
🏆 Nobel Laureates in Physics (1991–2010)
| Year | Laureate(s) | Country | Discovery / Contribution | Significance |
|---|---|---|---|---|
| 1995 | Martin L. Perl & Frederick Reines | USA | Discovery of the tau lepton and the neutrino | Confirmed key particles in Standard Model |
| 1997 | Steven Chu, Claude Cohen-Tannoudji & William D. Phillips | USA, France | Laser cooling and trapping of atoms | Enabled precise atomic control in quantum physics |
| 2001 | Eric A. Cornell, Wolfgang Ketterle & Carl E. Wieman | USA, Germany | Creation of Bose–Einstein condensates | New state of matter at near absolute zero |
| 2003 | Alexei Abrikosov, Vitaly Ginzburg & Anthony Leggett | Russia, USA | Superconductivity and superfluidity theories | Advanced quantum materials research |
| 2006 | John C. Mather & George F. Smoot | USA | Blackbody form and anisotropy of the cosmic microwave background | Deep insights into Big Bang cosmology |
| 2008 | Yoichiro Nambu, Makoto Kobayashi & Toshihide Maskawa | USA, Japan | Spontaneous symmetry breaking & CP violation | Explained why the universe is made of matter |
| 2010 | Andre Geim & Konstantin Novoselov | UK | Discovery of graphene | Revolutionary 2D material with immense potential |
⚛️ Did You Know?
In 1997, cooling atoms to near absolute zero using laser light opened the door for quantum computing and ultra-precise atomic clocks.

🚀 New Frontiers: Nobel Prize in Physics (2011–2024)
Exploring the Unknown: From Quantum Information to Cosmic Extremes
The era from 2011 to 2024 has been a thrilling ride through the quantum revolution, gravitational waves, and exoplanet discoveries. This period reflects the growing interconnection between fundamental physics and advanced technology, opening up doors to a future shaped by quantum information, astronomical observatories, and multi-messenger astrophysics.
🏆 Nobel Laureates in Physics (2011–2024)
| Year | Laureate(s) | Country | Discovery / Contribution | Significance |
|---|---|---|---|---|
| 2011 | Saul Perlmutter, Brian P. Schmidt & Adam G. Riess | USA, Australia | Discovery of the accelerating expansion of the universe through supernovae | First evidence for dark energy |
| 2015 | Takaaki Kajita & Arthur B. McDonald | Japan, Canada | Discovery of neutrino oscillations | Proved neutrinos have mass |
| 2017 | Rainer Weiss, Barry C. Barish & Kip S. Thorne | USA | Detection of gravitational waves (LIGO) | Confirmed Einstein’s prediction; opened a new era in astronomy |
| 2019 | James Peebles, Michel Mayor & Didier Queloz | Canada, Switzerland | Theoretical discoveries in cosmology & discovery of exoplanet orbiting a sun-like star | Expanded understanding of the cosmos and other worlds |
| 2020 | Roger Penrose, Reinhard Genzel & Andrea Ghez | UK, Germany, USA | Black hole formation and discovery of supermassive black hole at the Milky Way’s center | Proved black holes are real and central to galaxies |
| 2022 | Alain Aspect, John F. Clauser & Anton Zeilinger | France, USA, Austria | Experiments with entangled photons—foundations of quantum mechanics | Laid the groundwork for quantum computing and communication |
| 2023 | Pierre Agostini, Ferenc Krausz & Anne L’Huillier | France, Hungary, Sweden | Attosecond light pulses for studying electron dynamics | Ultra-fast physics at atomic timescales |
| 2024 | [Details Pending or Yet to Be Announced]* | – | – | – |
*As of early 2025, the 2024 Nobel Prize in Physics has been awarded to [placeholder]. We’ll update this as soon as the official announcement is made.
🌍 Notable Highlights
- Women in Physics: Andrea Ghez (2020) and Anne L’Huillier (2023) represent growing gender diversity in physics recognition.
- Quantum Leap: 2022’s award marks a major step toward quantum information technologies shaping the future.
- Astrophysics Domination: Several recent awards highlight how cosmology and astronomy now drive fundamental physics.
✨ Inspiring the Next Generation
These breakthroughs are not just Nobel-worthy—they inspire the tools of tomorrow: quantum computers, space observatories, and technologies we’ve yet to imagine.
Great! Let’s now shine a spotlight on some of the most memorable, record-setting, and historic moments in the Nobel Prize in Physics journey:
🌟 Notable Milestones in the Nobel Prize in Physics
The Nobel Prize in Physics isn’t just about discoveries — it’s about breaking barriers, making history, and shaping the future of science. Here are some standout moments that defined the legacy of this prestigious award.
🥇 The First Nobel Prize in Physics (1901)
- Winner: Wilhelm Conrad Röntgen 🇩🇪
- Discovery: X-rays
- Significance: Opened a new window into the human body and medical imaging.
🗓️ A discovery that revolutionized diagnostics and marked the beginning of the Nobel journey.
👩🔬 First Woman Winner in Physics
- Winner: Marie Curie 🇫🇷🇵🇱 (1903)
- With: Pierre Curie & Henri Becquerel
- Discovery: Radioactivity
🏆 She became the first woman to win a Nobel—and the only person to win in two scientific fields (Physics & Chemistry).
👨👩👧 Youngest Nobel Laureate in Physics
- Winner: Lawrence Bragg 🇬🇧
- Year: 1915 (Age 25)
- Contribution: X-ray diffraction in crystals (shared with his father, William Bragg)
🧬 Still holds the record over a century later.
🎖️ Oldest Laureate in Physics
- Winner: Arthur Ashkin 🇺🇸
- Year: 2018 (Age 96)
- Discovery: Optical tweezers that trap particles with laser light
💡 Proved it’s never too late to win a Nobel!
🌍 Nobel Prize for Peaceful Nuclear Research
- Winner: Niels Bohr 🇩🇰 (1922)
- Contribution: Structure of atoms and quantum theory
🧪 Laid the foundation for modern atomic and nuclear physics.
🧠 Multiple Nobel Physics Winners
- John Bardeen 🇺🇸
- 1956: Transistor
- 1972: Superconductivity theory
🥇 The only person to win the Nobel Prize in Physics twice!
🌌 From Theory to Reality: Einstein’s Recognition
- Winner: Albert Einstein 🇩🇪 (1921)
- Not for relativity, but for the photoelectric effect
☀️ Crucial for quantum theory—and today’s solar panels.
🌐 Most Recent Woman Winner
- Winner: Anne L’Huillier 🇸🇪 (2023)
- Contribution: Attosecond physics
🧭 Paving the way for ultrafast quantum science.
🧬 Longest Time Between Discovery and Nobel
- Example: Gravitational Waves (predicted 1916, awarded 2017)
📡 A century-long journey from Einstein’s theory to detection.
These stories show us that the Nobel Prize in Physics is not just a reward—it’s a timeline of human brilliance, crossing borders, generations, and frontiers of understanding.
🏁 Conclusion: Celebrating Human Curiosity and Scientific Excellence
The Nobel Prize in Physics is more than just a medal—it’s a global symbol of curiosity, creativity, and courage in the pursuit of truth. Since its inception in 1901, this prestigious award has celebrated those whose work has changed the way we understand the universe.
From X-rays to quantum entanglement, black holes to gravitational waves, each breakthrough awarded has pushed the boundaries of human knowledge. These discoveries not only deepen our understanding of nature but also shape the technologies we use every day—like medical imaging, GPS, semiconductors, and even solar energy.
What makes the Nobel Prize so powerful is its ability to:
- 🧠 Inspire new generations of scientists, students, and thinkers
- 🌍 Recognize global excellence regardless of nationality or background
- 🚀 Encourage international collaboration in the name of science
- 🧪 Fuel innovation that leads to real-world progress
As we look toward the future—where quantum computing, space exploration, and artificial intelligence dominate scientific inquiry—the Nobel Prize in Physics remains a beacon. It reminds us that great ideas begin with a question and grow with persistence, passion, and purpose.
💫 Next up in this twin series:
Nobel Prize in Chemistry: Winners List (1901–2024)
From atomic theory to CRISPR—explore every major milestone in chemistry.
👉 Read the Chemistry post here
Two timelines. One purpose.
📚 Made for each other.
Closing Note | समापन टिप्पणी:
This post is dedicated to all students, learners, and jobseekers who are passionate about expanding their knowledge base and staying well-informed.
यह पोस्ट उन सभी विद्यार्थियों, ज्ञान-प्रेमियों और नौकरी के इच्छुकों को समर्पित है जो सामान्य ज्ञान बढ़ाने और प्रतियोगी परीक्षाओं की तैयारी में लगे हुए हैं। यह शृंखला आपको ज्ञान की इस यात्रा में मार्गदर्शन और सहयोग प्रदान करने के उद्देश्य से बनाई गई है। और भी उपयोगी पोस्ट जल्द ही आ रही हैं — कृपया हमारी वेबसाइट और सोशल मीडिया पेज पर नजर बनाए रखें।
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That was a lot of interesting information and very well presented. It was a pleasure to read. Thank you.
Thank you so much for your support and encouragement 🙏
I thought about doing this work for aspiring students.
Also for general knowledge purposes.
Best regards 🙏