Nobel Prize Medals
Except otherwise stated, all results include the premium.
See also : Russia and eastern Europe Medicine Nobel in medicine Nobel in Chemistry Physics
Chronology : 21st century 2020 to now 2021
See also : Russia and eastern Europe Medicine Nobel in medicine Nobel in Chemistry Physics
Chronology : 21st century 2020 to now 2021
1936 Carlos Saavedra Lamas Peace Price
2014 SOLD for $ 1.12M by Stack's Bowers
A pioneer in the field of labor legislation, Carlos Saavedra Lamas supported the founding of the International Labor Organization in 1919. Minister of foreign affairs and worship in Argentina from 1932, he was instrumental in 1935 in ending the Chaco war between Paraguay and Bolivia.
Meanwhile, in 1934, Saavedra Lamas presented the South American Antiwar Pact to the League of Nations. The pact was signed by eleven countries. He was elected president of the Assembly of the League of Nations in 1936. Acclaimed for these efforts, he was awarded the Nobel Peace Prize in 1936.
His Nobel medal was retrieved in South America by a bullion buyer to whom it had been consigned for melt. It was sold for $ 1.12M from a higher estimate of $ 100K by Stack's Bowers on March 28, 2014, lot 2029.
This medal was in period the second ever Nobel Peace Prize medal sold at auction, after the medal awarded in 1903 to Sir William Cremer, sold by Sotheby's in November 1985 for £ 11,550.
1936 Nobel prize of Saavedra Lamas. Define his influence on the advancement of Peace.
Carlos Saavedra Lamas, an Argentine jurist, diplomat, and politician who served as Foreign Minister, was awarded the 1936 Nobel Peace Prize for his pivotal role as the architect of the Argentine Antiwar Pact of 1933, which condemned wars of aggression and promoted peaceful dispute resolution among nations. This pact, also known as the South American Anti-War Pact, was eventually signed by 31 states by 1936 and served as a framework for non-aggression and arbitration in international relations. He leveraged this agreement to mediate the end of the Chaco War (1932–1935), a brutal conflict between Paraguay and Bolivia over territorial disputes in the Gran Chaco region, facilitating peace negotiations that led to a diplomatic resolution and ceasefire.
His broader influence on the advancement of peace extended to strengthening Latin American international law traditions, emphasizing security, justice, and the rejection of force through a lens of international interdependence—incorporating geographic, thematic, and multifactor dimensions to global stability. As President of the Assembly of the League of Nations, Saavedra Lamas incorporated Argentina into the organization and rebuilt diplomatic ties among the ABC states (Argentina, Brazil, and Chile), fostering regional cooperation. He advocated for addressing underlying causes of conflict, such as commercial maladjustments and trade barriers, viewing them as contributors to instability and rebellion. As the first Latin American Nobel Peace Prize laureate, his efforts set a precedent for multilateral diplomacy in the region, influencing subsequent approaches to conflict resolution and highlighting the role of emerging powers in global peacebuilding.
Meanwhile, in 1934, Saavedra Lamas presented the South American Antiwar Pact to the League of Nations. The pact was signed by eleven countries. He was elected president of the Assembly of the League of Nations in 1936. Acclaimed for these efforts, he was awarded the Nobel Peace Prize in 1936.
His Nobel medal was retrieved in South America by a bullion buyer to whom it had been consigned for melt. It was sold for $ 1.12M from a higher estimate of $ 100K by Stack's Bowers on March 28, 2014, lot 2029.
This medal was in period the second ever Nobel Peace Prize medal sold at auction, after the medal awarded in 1903 to Sir William Cremer, sold by Sotheby's in November 1985 for £ 11,550.
1936 Nobel prize of Saavedra Lamas. Define his influence on the advancement of Peace.
Carlos Saavedra Lamas, an Argentine jurist, diplomat, and politician who served as Foreign Minister, was awarded the 1936 Nobel Peace Prize for his pivotal role as the architect of the Argentine Antiwar Pact of 1933, which condemned wars of aggression and promoted peaceful dispute resolution among nations. This pact, also known as the South American Anti-War Pact, was eventually signed by 31 states by 1936 and served as a framework for non-aggression and arbitration in international relations. He leveraged this agreement to mediate the end of the Chaco War (1932–1935), a brutal conflict between Paraguay and Bolivia over territorial disputes in the Gran Chaco region, facilitating peace negotiations that led to a diplomatic resolution and ceasefire.
His broader influence on the advancement of peace extended to strengthening Latin American international law traditions, emphasizing security, justice, and the rejection of force through a lens of international interdependence—incorporating geographic, thematic, and multifactor dimensions to global stability. As President of the Assembly of the League of Nations, Saavedra Lamas incorporated Argentina into the organization and rebuilt diplomatic ties among the ABC states (Argentina, Brazil, and Chile), fostering regional cooperation. He advocated for addressing underlying causes of conflict, such as commercial maladjustments and trade barriers, viewing them as contributors to instability and rebellion. As the first Latin American Nobel Peace Prize laureate, his efforts set a precedent for multilateral diplomacy in the region, influencing subsequent approaches to conflict resolution and highlighting the role of emerging powers in global peacebuilding.
1962 Physiology or Medicine
Intro
The birth of molecular biology is the result of a multidisciplinary cooperation between chemists, physicists and biologists. The existence of nucleic acids in the cell nuclei had been identified in the nineteenth century. From 1939, advances in micro-radiography X gave hope to understand the structure of these molecules.
Scientists had identified two types of acids, RNA (ribonucleic acid) in the cytoplasm of the cell and DNA (deoxyribonucleic acid) in the chromosomes. They appreciated that these acids held the key to the functioning of life.
Two British laboratories of crystallography worked collaboratively. Francis Crick, assisted by the young US doctor James D. Watson, was at Cambridge. In London, Maurice Wilkins was assisted by Rosalind Franklin who perfected the techniques of observation and realized the radiograms. The untimely cancer of Rosalind Franklin is probably due to an excess of radiation dose.
The single helix of RNA structure and the two strands of DNA were among the first discoveries. In 1953, Watson understood that the shapes of the elements of the two DNA strands were identical although these elements were different. Crick and Watson immediately developed the model of the double helix, which was the biggest breakthrough of all time in the field of life sciences.
Both strands of the helix are connected by regularly spaced links which are always constituted by a pair of chains in two couples of possibilities. When the strands are disjoined, the helix is restructured with organic matter for the creation of the second strand of a new double helix with the same genetic message as the original DNA molecule. Before Crick and Watson, no geometer, no artist had imagined this compact and steady structure.
Crick and Watson knew immediately that they had found the secret of the transmission of information in biological material. With this key, molecular biology soon became a major science, leading to understand cell differentiation and biodiversity.
The letter written by Crick to his young son on the importance of the discovery was sold for $ 6.05M by Christie's in 2013.
The Nobel Prize in Physiology or Medicine is awarded to Crick, Watson and Wilkins in 1962.
Scientists had identified two types of acids, RNA (ribonucleic acid) in the cytoplasm of the cell and DNA (deoxyribonucleic acid) in the chromosomes. They appreciated that these acids held the key to the functioning of life.
Two British laboratories of crystallography worked collaboratively. Francis Crick, assisted by the young US doctor James D. Watson, was at Cambridge. In London, Maurice Wilkins was assisted by Rosalind Franklin who perfected the techniques of observation and realized the radiograms. The untimely cancer of Rosalind Franklin is probably due to an excess of radiation dose.
The single helix of RNA structure and the two strands of DNA were among the first discoveries. In 1953, Watson understood that the shapes of the elements of the two DNA strands were identical although these elements were different. Crick and Watson immediately developed the model of the double helix, which was the biggest breakthrough of all time in the field of life sciences.
Both strands of the helix are connected by regularly spaced links which are always constituted by a pair of chains in two couples of possibilities. When the strands are disjoined, the helix is restructured with organic matter for the creation of the second strand of a new double helix with the same genetic message as the original DNA molecule. Before Crick and Watson, no geometer, no artist had imagined this compact and steady structure.
Crick and Watson knew immediately that they had found the secret of the transmission of information in biological material. With this key, molecular biology soon became a major science, leading to understand cell differentiation and biodiversity.
The letter written by Crick to his young son on the importance of the discovery was sold for $ 6.05M by Christie's in 2013.
The Nobel Prize in Physiology or Medicine is awarded to Crick, Watson and Wilkins in 1962.
1962 Nobel prize to Crick and Watson. Define their influence on the advancement of Medicine. Define the role of both scientists in their research team.
The 1962 Nobel Prize in Physiology or Medicine was awarded to Francis Crick, James Watson, and Maurice Wilkins for their discoveries concerning the molecular structure of nucleic acids (specifically, the double-helix structure of DNA) and its significance for information transfer in living material. While the query mentions only Crick and Watson, the prize was shared with Wilkins, reflecting collaborative efforts across institutions.
Influence on the Advancement of Medicine
The work of Crick and Watson (building on contributions from Wilkins, Rosalind Franklin, and others) fundamentally transformed medicine by establishing the structural basis of DNA, which unlocked the field of molecular biology. This discovery provided the blueprint for how genetic information is stored, replicated, and transmitted, leading to numerous breakthroughs:
Roles in Their Research Team
Crick and Watson formed a close-knit collaborative duo at the Cavendish Laboratory in Cambridge University, working from 1951 to 1953. Their "team" was informal but drew on data from a broader network, including King's College London researchers. They were not experimentalists collecting primary data but rather theoreticians and model-builders who synthesized existing evidence into a coherent structure. Key roles:
Rosalind Franklin's contributions
Introduction
Rosalind Elsie Franklin (1920–1958) was a British chemist and X-ray crystallographer whose pioneering work advanced multiple fields of science. Despite her early death at age 37 from ovarian cancer—possibly linked to prolonged X-ray exposure—she published extensively, including 19 papers on coals and carbons, 5 on DNA, and 21 on viruses. Her contributions were foundational in structural biology, materials science, and virology, though she is most famously associated with the discovery of DNA's structure.
Contributions to Carbon and Coal Research
Early in her career, Franklin studied the physical chemistry of carbon and coal, particularly during World War II when she worked on the porosity and structure of coals for the British Coal Utilisation Research Association. She developed methods to classify coals based on their microstructures, predicting their performance as fuels and materials. This work detailed the structures of graphitizing and non-graphitizing carbons, which formed the basis for developing carbon fibers and heat-resistant materials used in industry. Her findings earned her an international reputation among coal chemists and contributed to advancements in the coking industry.
Contributions to DNA Structure
Franklin's most renowned work occurred at King's College London from 1951 to 1953, where she applied X-ray diffraction techniques to study DNA. She differentiated the A (dry) and B (wet) forms of DNA, solving a key problem that had perplexed researchers, and established that the molecule existed in a helical conformation. By controlling the humidity of DNA samples, she captured high-resolution images, including the famous Photograph 51 in May 1952, taken with her student Raymond Gosling. This image, which required over 100 hours of exposure, revealed the double-helix structure through its X-shaped pattern, providing critical data on DNA's dimensions, density, and base positioning. Her unpublished data and reports were shared with James Watson and Francis Crick (without her full knowledge or consent), enabling them to construct their 1953 model of the DNA double helix. Recent analyses, including overlooked documents from 1953, portray Franklin not as a victim but as an equal contributor who independently grasped the helical structure and its implications for genetic information transfer. She also inferred that DNA played a role in specifying proteins, aligning with the emerging "central dogma" of molecular biology.
Contributions to Virology
After leaving King's College, Franklin joined Birkbeck College in 1953 and shifted to studying viruses using X-ray crystallography. She elucidated the structures of helical viruses like tobacco mosaic virus (TMV) and spherical viruses such as poliovirus. Her work on TMV confirmed its hollow cylindrical structure and the arrangement of RNA within protein subunits, laying the groundwork for structural virology. Collaborating with Aaron Klug (who later won a Nobel Prize), she advanced understanding of virus assembly and infection mechanisms, influencing modern virology and vaccine development.
Legacy and Recognition
Franklin's contributions were pivotal to two Nobel Prizes: the 1962 Physiology or Medicine award to Watson, Crick, and Maurice Wilkins for DNA structure (awarded posthumously ineligible for her), and the 1982 Chemistry award to Klug for virus research influenced by her methods. Debates over credit for DNA highlight issues of gender bias and collaboration ethics in science, with her role often underrecognized until biographies and reevaluations in the late 20th and early 21st centuries. Today, she is celebrated as a trailblazer for women in STEM, with institutions like Rosalind Franklin University named in her honor, and her work continues to underpin advancements in genomics, materials science, and infectious disease research.
The 1962 Nobel Prize in Physiology or Medicine was awarded to Francis Crick, James Watson, and Maurice Wilkins for their discoveries concerning the molecular structure of nucleic acids (specifically, the double-helix structure of DNA) and its significance for information transfer in living material. While the query mentions only Crick and Watson, the prize was shared with Wilkins, reflecting collaborative efforts across institutions.
Influence on the Advancement of Medicine
The work of Crick and Watson (building on contributions from Wilkins, Rosalind Franklin, and others) fundamentally transformed medicine by establishing the structural basis of DNA, which unlocked the field of molecular biology. This discovery provided the blueprint for how genetic information is stored, replicated, and transmitted, leading to numerous breakthroughs:
- Genetics and Genomics: It enabled the mapping of the human genome (completed in 2003 via the Human Genome Project, which Watson helped initiate), allowing identification of disease-causing genes. This has advanced diagnostics for conditions like cystic fibrosis, sickle cell anemia, and various cancers, facilitating early detection and targeted therapies.
- Biotechnology and Recombinant DNA: Understanding DNA's structure paved the way for techniques like gene cloning, CRISPR-Cas9 gene editing (developed decades later but rooted in their model), and recombinant insulin production (first approved in 1982). These have revolutionized treatments for diabetes, hemophilia, and other genetic disorders.
- Personalized Medicine: Insights into DNA replication and mutations have informed pharmacogenomics, where treatments are tailored to an individual's genetic profile, improving efficacy and reducing side effects in areas like oncology (e.g., drugs targeting specific mutations in BRCA genes for breast cancer).
- Infectious Disease and Vaccines: The model explained viral replication, aiding the development of antiviral drugs and mRNA vaccines (e.g., for COVID-19 in 2020-2021), which rely on manipulating genetic material.
- Broader Impacts: It shifted medicine from symptom-based to molecular-level interventions, contributing to regenerative medicine, stem cell research, and forensic applications like DNA fingerprinting (introduced in the 1980s). Overall, their discovery accelerated the biotech industry, now valued in trillions, and has saved countless lives through improved understanding of heredity, evolution, and disease mechanisms.
Roles in Their Research Team
Crick and Watson formed a close-knit collaborative duo at the Cavendish Laboratory in Cambridge University, working from 1951 to 1953. Their "team" was informal but drew on data from a broader network, including King's College London researchers. They were not experimentalists collecting primary data but rather theoreticians and model-builders who synthesized existing evidence into a coherent structure. Key roles:
- Francis Crick: A physicist by training who transitioned to biology, Crick served as the theoretical anchor. He focused on interpreting X-ray crystallography data (notably from Rosalind Franklin's unpublished Photo 51) to deduce DNA's helical form and base-pairing rules (adenine-thymine, guanine-cytosine). Crick proposed the "central dogma" of molecular biology (DNA → RNA → protein), which explained information flow, though this came post-discovery. His role involved mathematical modeling, hypothesis testing, and ensuring the structure aligned with chemical and physical principles. He was instrumental in writing their seminal 1953 Nature paper.
- James Watson: A young American zoologist influenced by the bacteriophage group, Watson brought biological insights into genetic replication and mutation. He handled much of the physical model-building (using cardboard cutouts and metal pieces) and emphasized the biological implications, such as how the structure allowed for faithful copying during cell division. Watson's enthusiasm drove the partnership, and he facilitated access to key data through informal channels (e.g., from Wilkins). Post-discovery, he advocated for applying the model to genetics, later directing the Human Genome Project.
Rosalind Franklin's contributions
Introduction
Rosalind Elsie Franklin (1920–1958) was a British chemist and X-ray crystallographer whose pioneering work advanced multiple fields of science. Despite her early death at age 37 from ovarian cancer—possibly linked to prolonged X-ray exposure—she published extensively, including 19 papers on coals and carbons, 5 on DNA, and 21 on viruses. Her contributions were foundational in structural biology, materials science, and virology, though she is most famously associated with the discovery of DNA's structure.
Contributions to Carbon and Coal Research
Early in her career, Franklin studied the physical chemistry of carbon and coal, particularly during World War II when she worked on the porosity and structure of coals for the British Coal Utilisation Research Association. She developed methods to classify coals based on their microstructures, predicting their performance as fuels and materials. This work detailed the structures of graphitizing and non-graphitizing carbons, which formed the basis for developing carbon fibers and heat-resistant materials used in industry. Her findings earned her an international reputation among coal chemists and contributed to advancements in the coking industry.
Contributions to DNA Structure
Franklin's most renowned work occurred at King's College London from 1951 to 1953, where she applied X-ray diffraction techniques to study DNA. She differentiated the A (dry) and B (wet) forms of DNA, solving a key problem that had perplexed researchers, and established that the molecule existed in a helical conformation. By controlling the humidity of DNA samples, she captured high-resolution images, including the famous Photograph 51 in May 1952, taken with her student Raymond Gosling. This image, which required over 100 hours of exposure, revealed the double-helix structure through its X-shaped pattern, providing critical data on DNA's dimensions, density, and base positioning. Her unpublished data and reports were shared with James Watson and Francis Crick (without her full knowledge or consent), enabling them to construct their 1953 model of the DNA double helix. Recent analyses, including overlooked documents from 1953, portray Franklin not as a victim but as an equal contributor who independently grasped the helical structure and its implications for genetic information transfer. She also inferred that DNA played a role in specifying proteins, aligning with the emerging "central dogma" of molecular biology.
Contributions to Virology
After leaving King's College, Franklin joined Birkbeck College in 1953 and shifted to studying viruses using X-ray crystallography. She elucidated the structures of helical viruses like tobacco mosaic virus (TMV) and spherical viruses such as poliovirus. Her work on TMV confirmed its hollow cylindrical structure and the arrangement of RNA within protein subunits, laying the groundwork for structural virology. Collaborating with Aaron Klug (who later won a Nobel Prize), she advanced understanding of virus assembly and infection mechanisms, influencing modern virology and vaccine development.
Legacy and Recognition
Franklin's contributions were pivotal to two Nobel Prizes: the 1962 Physiology or Medicine award to Watson, Crick, and Maurice Wilkins for DNA structure (awarded posthumously ineligible for her), and the 1982 Chemistry award to Klug for virus research influenced by her methods. Debates over credit for DNA highlight issues of gender bias and collaboration ethics in science, with her role often underrecognized until biographies and reevaluations in the late 20th and early 21st centuries. Today, she is celebrated as a trailblazer for women in STEM, with institutions like Rosalind Franklin University named in her honor, and her work continues to underpin advancements in genomics, materials science, and infectious disease research.
1
James Watson
2014 SOLD for $ 4.8M by Christie's
The 86 year old Watson entrusted Christie's to sell his Nobel memories, offered in three lots on December 4, 2014. The Nobel medal was sold for $ 4.8M from a lower estimate of $ 2.5M, lot 1. His handwritten notes for the acceptance speech was sold for $ 365K, lot 2.
The manuscript of his Nobel lecture on the role of RNA in protein synthesis was sold for $ 245K, lot 3. Less than ten years after the discovery of the double helix, this theme highlighted the fact that the physicochemical mechanisms of life were already fully explained.
A portion of the proceeds from the sales were donated by Dr. Watson to the benefit of scientific research and charities.
The manuscript of his Nobel lecture on the role of RNA in protein synthesis was sold for $ 245K, lot 3. Less than ten years after the discovery of the double helix, this theme highlighted the fact that the physicochemical mechanisms of life were already fully explained.
A portion of the proceeds from the sales were donated by Dr. Watson to the benefit of scientific research and charities.
2
Francis Crick
2013 SOLD for $ 2.27M by Heritage
The Nobel gold medal and diploma awarded to Francis HC Crick were sold for $ 2.27M from a lower estimate of $ 500K by Heritage on April 11, 2013, lot 34001.
1963 Alan Hodgkin in Physiology or Medicine
2015 SOLD for $ 800K by Nate D Sanders
The knowledge of the physico-chemical functioning of life made its breakthroughs in the mid-twentieth century helped of course by the X-rays but also by the improvement of electricity and electronics.
Alan Hodgkin and Andrew Huxley are biophysicists and more exactly electrophysiologists. The new technique of the voltage clamp allows them to measure the electric signal across the membrane of a nerve cell.
The sciatic nerve of the frog did not allow measurements in a sufficient accuracy. Working in association with the marine biology laboratory of Plymouth in England, they use in their experiments the largest known axon in the animal reign, measuring 1 mm in diameter, used by the squid to elicit a quick reaction to a threat.
The two researchers can then model the electrical behavior of the neuron. This fruitful advance will have a considerable impact on the knowledge and healing of several nerve diseases and will enable to raise a model of the transmission of nerve inputs to the muscular system. The existence of ion channels in cell membranes will be confirmed by others much later, completing the description of the nervous cell.
Hodgkin and Huxley shared the 1963 Nobel Prize in Physiology or Medicine with John Eccles. The Nobel medal awarded to Hodgkin was sold for $ 800K by Nate D Sanders on October 29, 2015, lot 1. It was accompanied by various documents including a copy of the scientific publication associated with the prize.
1963 Nobel prize to Hodgkin. Define his influence on the advancement of Medicine.
Alan Lloyd Hodgkin, a British physiologist and biophysicist, shared the 1963 Nobel Prize in Physiology or Medicine with Andrew Huxley and John Eccles for their groundbreaking discoveries on the ionic mechanisms underlying nerve impulses. Their work focused on how sodium and potassium ions move across nerve cell membranes to generate and propagate action potentials, the electrical signals that enable communication within the nervous system.
Hodgkin's contributions, particularly through the Hodgkin-Huxley model developed in the late 1940s and early 1950s, provided a mathematical and experimental framework for understanding voltage-gated ion channels and the kinetics of nerve excitation. This model revolutionized neuroscience by explaining the fundamental process of nerve conduction at a molecular level, replacing earlier vague theories with precise, quantifiable predictions that could be tested experimentally.
His influence on the advancement of medicine has been profound and enduring:
Alan Hodgkin and Andrew Huxley are biophysicists and more exactly electrophysiologists. The new technique of the voltage clamp allows them to measure the electric signal across the membrane of a nerve cell.
The sciatic nerve of the frog did not allow measurements in a sufficient accuracy. Working in association with the marine biology laboratory of Plymouth in England, they use in their experiments the largest known axon in the animal reign, measuring 1 mm in diameter, used by the squid to elicit a quick reaction to a threat.
The two researchers can then model the electrical behavior of the neuron. This fruitful advance will have a considerable impact on the knowledge and healing of several nerve diseases and will enable to raise a model of the transmission of nerve inputs to the muscular system. The existence of ion channels in cell membranes will be confirmed by others much later, completing the description of the nervous cell.
Hodgkin and Huxley shared the 1963 Nobel Prize in Physiology or Medicine with John Eccles. The Nobel medal awarded to Hodgkin was sold for $ 800K by Nate D Sanders on October 29, 2015, lot 1. It was accompanied by various documents including a copy of the scientific publication associated with the prize.
1963 Nobel prize to Hodgkin. Define his influence on the advancement of Medicine.
Alan Lloyd Hodgkin, a British physiologist and biophysicist, shared the 1963 Nobel Prize in Physiology or Medicine with Andrew Huxley and John Eccles for their groundbreaking discoveries on the ionic mechanisms underlying nerve impulses. Their work focused on how sodium and potassium ions move across nerve cell membranes to generate and propagate action potentials, the electrical signals that enable communication within the nervous system.
Hodgkin's contributions, particularly through the Hodgkin-Huxley model developed in the late 1940s and early 1950s, provided a mathematical and experimental framework for understanding voltage-gated ion channels and the kinetics of nerve excitation. This model revolutionized neuroscience by explaining the fundamental process of nerve conduction at a molecular level, replacing earlier vague theories with precise, quantifiable predictions that could be tested experimentally.
His influence on the advancement of medicine has been profound and enduring:
- Foundation for Neurophysiology: The insights from Hodgkin's research form the basis for modern understanding of how neurons function, influencing fields like neurology, psychiatry, and anesthesiology. For instance, it underpins knowledge of how local anesthetics block sodium channels to prevent pain signals.
- Drug Development and Treatments: By elucidating ion channel behavior, his work enabled the development of medications targeting these channels, such as anti-epileptic drugs (e.g., those affecting sodium channels to stabilize neuronal firing) and treatments for cardiac arrhythmias, where similar ionic mechanisms apply to heart muscle cells.
- Broader Scientific Legacy: The Hodgkin-Huxley model inspired subsequent Nobel Prize-winning research, including Erwin Neher and Bert Sakmann's patch-clamp technique for studying single ion channels (1991) and Roderick MacKinnon's structural studies of ion channels (2003). It also advanced computational neuroscience, allowing simulations of neural networks that aid in researching disorders like Alzheimer's, Parkinson's, and multiple sclerosis.
1965 Richard Feynman in Physics
2018 SOLD for $ 975K by Sotheby's
Richard Feynman's thinking was original and effective. Reading a commentary by Dirac about the lack of understanding in the theory of quantum electromagnetism, he decides to always rely only on himself for his research while adding a playful dimension. The title of one of his books of reminiscences, Surely you're joking, Mr Feynman !, is significant.
Feynman's method was to use geometry and diagrams rather than developments in mathematical formulas. Highly motivated to share his knowledge, he was the best professor and lecturer in atomic physics, ensuring that his explanations were always clear.
His contributions in theoretical physics are numerous. He solved Dirac's problem by imagining the quantum mechanism of charged particles in rotation, for which he shared in 1965 the Nobel Prize in Physics with Tomonaga and Schwinger. He also made fundamental advances in the model of the helium superfluidity and in the theory of quarks. He was also a visionary, encouraging as early as 1959 the development of nanotechnologies.
On November 30, 2018, Sotheby's dispersed Richard Feynman's research library, including autograph drafts of several lectures. The lot 67, sold for $ 975K, was made of his Nobel medal and diploma along with two documents used during the ceremony.
1965 Nobel prize to Feynman. Define his influence on the advancement of Physics
Richard Feynman was awarded the Nobel Prize in Physics in 1965, shared with Julian Schwinger and Sin-Itiro Tomonaga, for their foundational contributions to quantum electrodynamics (QED), a theory that reconciles quantum mechanics with electromagnetic interactions and has profoundly shaped modern particle physics. This work resolved longstanding inconsistencies in earlier theories, enabling precise predictions of particle behaviors at the subatomic level, such as electron-photon interactions, with unprecedented accuracy.
Feynman's influence extended far beyond QED, revolutionizing multiple areas of physics through innovative tools and concepts that remain central to research today. One of his most enduring legacies is the development of Feynman diagrams, simple visual representations that depict complex particle interactions, making calculations in quantum field theory more intuitive and accessible; these diagrams are now a staple in particle physics textbooks and computations worldwide. He also pioneered the path integral formulation of quantum mechanics, an alternative approach that reframes particle paths as sums over all possible trajectories, influencing fields from quantum computing to statistical mechanics.
In condensed matter physics, Feynman contributed to understanding superfluidity in liquid helium, explaining its frictionless flow at low temperatures, which advanced theories of quantum fluids and earned recognition alongside his other work. His parton model proposed that protons and neutrons consist of smaller constituents (later identified as quarks), laying groundwork for quantum chromodynamics and deep inelastic scattering experiments that transformed high-energy physics. Additionally, Feynman made key advances in weak interactions, such as beta decay, collaborating on theories that unified fundamental forces.
Beyond research, Feynman's impact as an educator and communicator reshaped how physics is taught and perceived. His "Feynman Lectures on Physics," delivered at Caltech and published in the 1960s, demystified complex topics for students and professionals alike, emphasizing conceptual understanding over rote mathematics and inspiring generations of physicists. He popularized science through books like "Surely You're Joking, Mr. Feynman!" and public demonstrations, such as his role in the Challenger shuttle investigation, where he famously illustrated O-ring failure with a simple ice water experiment, highlighting the importance of clear, evidence-based reasoning in science. Overall, Feynman's blend of rigorous innovation, unconventional thinking, and accessible teaching accelerated advancements in theoretical physics while broadening its appeal, making him one of the most influential figures in the field's history.
Feynman's method was to use geometry and diagrams rather than developments in mathematical formulas. Highly motivated to share his knowledge, he was the best professor and lecturer in atomic physics, ensuring that his explanations were always clear.
His contributions in theoretical physics are numerous. He solved Dirac's problem by imagining the quantum mechanism of charged particles in rotation, for which he shared in 1965 the Nobel Prize in Physics with Tomonaga and Schwinger. He also made fundamental advances in the model of the helium superfluidity and in the theory of quarks. He was also a visionary, encouraging as early as 1959 the development of nanotechnologies.
On November 30, 2018, Sotheby's dispersed Richard Feynman's research library, including autograph drafts of several lectures. The lot 67, sold for $ 975K, was made of his Nobel medal and diploma along with two documents used during the ceremony.
1965 Nobel prize to Feynman. Define his influence on the advancement of Physics
Richard Feynman was awarded the Nobel Prize in Physics in 1965, shared with Julian Schwinger and Sin-Itiro Tomonaga, for their foundational contributions to quantum electrodynamics (QED), a theory that reconciles quantum mechanics with electromagnetic interactions and has profoundly shaped modern particle physics. This work resolved longstanding inconsistencies in earlier theories, enabling precise predictions of particle behaviors at the subatomic level, such as electron-photon interactions, with unprecedented accuracy.
Feynman's influence extended far beyond QED, revolutionizing multiple areas of physics through innovative tools and concepts that remain central to research today. One of his most enduring legacies is the development of Feynman diagrams, simple visual representations that depict complex particle interactions, making calculations in quantum field theory more intuitive and accessible; these diagrams are now a staple in particle physics textbooks and computations worldwide. He also pioneered the path integral formulation of quantum mechanics, an alternative approach that reframes particle paths as sums over all possible trajectories, influencing fields from quantum computing to statistical mechanics.
In condensed matter physics, Feynman contributed to understanding superfluidity in liquid helium, explaining its frictionless flow at low temperatures, which advanced theories of quantum fluids and earned recognition alongside his other work. His parton model proposed that protons and neutrons consist of smaller constituents (later identified as quarks), laying groundwork for quantum chromodynamics and deep inelastic scattering experiments that transformed high-energy physics. Additionally, Feynman made key advances in weak interactions, such as beta decay, collaborating on theories that unified fundamental forces.
Beyond research, Feynman's impact as an educator and communicator reshaped how physics is taught and perceived. His "Feynman Lectures on Physics," delivered at Caltech and published in the 1960s, demystified complex topics for students and professionals alike, emphasizing conceptual understanding over rote mathematics and inspiring generations of physicists. He popularized science through books like "Surely You're Joking, Mr. Feynman!" and public demonstrations, such as his role in the Challenger shuttle investigation, where he famously illustrated O-ring failure with a simple ice water experiment, highlighting the importance of clear, evidence-based reasoning in science. Overall, Feynman's blend of rigorous innovation, unconventional thinking, and accessible teaching accelerated advancements in theoretical physics while broadening its appeal, making him one of the most influential figures in the field's history.
1974 Friedrich von Hayek in Economic Science
2019 SOLD for £ 1.15M by Sotheby's
The Prize in Economic Science in Memory of Alfred Nobel was first awarded in 1969. This initiative of the Bank of Sweden, imitating the five prizes from Alfred Nobel's will, immediately aroused some reluctance. The Nobel family reminded the opinion of the original sponsor about the incompatibility of society's well-being with any notion of profit.
In 1974 the Prize is awarded jointly to Friedrich von Hayek and Gunnar Myrdal "for their pioneering work in the theory of money and economic fluctuations and for their penetrating analysis of the interdependence of economic, social and institutional phenomena".
By rewarding with the same quotation two thinkers whose institutional proposals were diametrically opposed, the Nobel committee had achieved an indisputable intellectual feat while generating an additional risk on its own credibility.
The neo-liberal von Hayek demanded the State interventions to be minimized. Investments that bring social progress must come from unconstrained individual savings. A redistribution of wealth by the state inevitably brings power to greedy groups that create delusion through their demagogy. Collectivism thus leads to the loss of the individual freedoms.
Von Hayek delivers his speech at the Nobel banquet on December 10, 1974. After a brief acknowledgement, he expresses clearly but courteously that such a Prize should not exist. Rewarding a conceptual work and not a rigorous scientific achievement, it offers a temptation for its own laureates to intervene outside their field of competence.
Von Hayek thus somehow joined the doubts of the Nobel family on the new Prize. In his political conceptions, the economists are the technicians who manage the relations between judiciary and government in a regime where laws must be stabilized for avoiding to slow down the investment initiatives.
In contrast, Myrdal wants the protection of individuals by a welfare state. Later he will also advocate the abolition of the Prize, with the argument that its attribution to von Hayek was encouraging the reactionaries.
A few years later the fall of the Soviet regime will be an illustration of the non-Keynesian model of von Hayek. Liberalism will come back in the Western democracies with Reagan and Thatcher.
On March 19, 2019, Sotheby's sold for £ 1.15M from a lower estimate of 400K the Nobel Prize medal and diploma awarded to von Hayek, lot 27.
1974 Nobel prize to von Hayek. Define his influence on the advancement of Economic Sciences.
Friedrich August von Hayek, an Austrian-British economist and philosopher, was awarded the Sveriges Riksbank Prize in Economic Sciences in Memory of Alfred Nobel in 1974, shared with Swedish economist Gunnar Myrdal. The prize recognized their "pioneering work in the theory of money and economic fluctuations and for their penetrating analysis of the interdependence of economic, social and institutional phenomena." Hayek's contributions fundamentally advanced economic sciences by emphasizing the limits of centralized knowledge, the role of markets in coordinating human action, and the evolutionary nature of social institutions.
Key Contributions to Economic Theory
Hayek's early work focused on monetary theory, capital, and business cycles, building on the Austrian School tradition. He argued that economic booms and busts arise from distortions in the structure of production caused by artificial credit expansion by banks, which lowers interest rates and misallocates resources. This integrated money into capital theory, showing how time preferences and investment decisions interact, influencing modern macroeconomics and cycle analysis. His ideas challenged Keynesian dominance in the mid-20th century and revived interest in Austrian economics post-Nobel.
A cornerstone of Hayek's influence is his articulation of the "knowledge problem" in economics. In his seminal 1945 paper "The Use of Knowledge in Society," he described prices as a decentralized mechanism for aggregating dispersed information, enabling spontaneous coordination without central planning. This view portrayed markets as a "marvel" of telecommunications, transmitting signals about scarcity and preferences. It deepened understanding of resource allocation, inspired research in information economics, and critiqued socialism's inability to replicate this process, as elaborated in The Road to Serfdom (1944), which warned against collectivism leading to totalitarianism.
Hayek also advanced the concept of "spontaneous order," where complex social structures—like markets, law, and language—emerge from individual actions without deliberate design. This evolutionary perspective influenced institutional economics, political economy, and complexity theory, emphasizing that institutions evolve through trial and error rather than rational construction. He critiqued "scientism" in social sciences, arguing against imitating physical sciences' methods, as human behavior involves subjective purposes and unintended consequences.
Broader Influence and Legacy
Hayek's interdisciplinary approach linked economics with social and institutional factors, impacting fields beyond pure theory. His work on the functional efficiency of economic systems highlighted markets' superiority in handling uncertainty and change. This informed neoliberal policies in the late 20th century, influencing leaders like Margaret Thatcher and Ronald Reagan, who drew on his ideas for deregulation and free-market reforms. He co-founded the Mont Pèlerin Society in 1947, a key network for liberal economists, including Milton Friedman.
His Nobel award revitalized Austrian economics, sparking renewed debate on free markets versus interventionism. Today, Hayek's insights on price signals apply to areas like information asymmetry, blockchain, and AI-driven economies, while his warnings about over-centralization remain relevant in discussions of globalization and policy design. Overall, Hayek shifted economic sciences toward appreciating decentralized processes, individual liberty, and the humility of knowledge limits, countering top-down models and fostering a more dynamic view of societal progress.
In 1974 the Prize is awarded jointly to Friedrich von Hayek and Gunnar Myrdal "for their pioneering work in the theory of money and economic fluctuations and for their penetrating analysis of the interdependence of economic, social and institutional phenomena".
By rewarding with the same quotation two thinkers whose institutional proposals were diametrically opposed, the Nobel committee had achieved an indisputable intellectual feat while generating an additional risk on its own credibility.
The neo-liberal von Hayek demanded the State interventions to be minimized. Investments that bring social progress must come from unconstrained individual savings. A redistribution of wealth by the state inevitably brings power to greedy groups that create delusion through their demagogy. Collectivism thus leads to the loss of the individual freedoms.
Von Hayek delivers his speech at the Nobel banquet on December 10, 1974. After a brief acknowledgement, he expresses clearly but courteously that such a Prize should not exist. Rewarding a conceptual work and not a rigorous scientific achievement, it offers a temptation for its own laureates to intervene outside their field of competence.
Von Hayek thus somehow joined the doubts of the Nobel family on the new Prize. In his political conceptions, the economists are the technicians who manage the relations between judiciary and government in a regime where laws must be stabilized for avoiding to slow down the investment initiatives.
In contrast, Myrdal wants the protection of individuals by a welfare state. Later he will also advocate the abolition of the Prize, with the argument that its attribution to von Hayek was encouraging the reactionaries.
A few years later the fall of the Soviet regime will be an illustration of the non-Keynesian model of von Hayek. Liberalism will come back in the Western democracies with Reagan and Thatcher.
On March 19, 2019, Sotheby's sold for £ 1.15M from a lower estimate of 400K the Nobel Prize medal and diploma awarded to von Hayek, lot 27.
1974 Nobel prize to von Hayek. Define his influence on the advancement of Economic Sciences.
Friedrich August von Hayek, an Austrian-British economist and philosopher, was awarded the Sveriges Riksbank Prize in Economic Sciences in Memory of Alfred Nobel in 1974, shared with Swedish economist Gunnar Myrdal. The prize recognized their "pioneering work in the theory of money and economic fluctuations and for their penetrating analysis of the interdependence of economic, social and institutional phenomena." Hayek's contributions fundamentally advanced economic sciences by emphasizing the limits of centralized knowledge, the role of markets in coordinating human action, and the evolutionary nature of social institutions.
Key Contributions to Economic Theory
Hayek's early work focused on monetary theory, capital, and business cycles, building on the Austrian School tradition. He argued that economic booms and busts arise from distortions in the structure of production caused by artificial credit expansion by banks, which lowers interest rates and misallocates resources. This integrated money into capital theory, showing how time preferences and investment decisions interact, influencing modern macroeconomics and cycle analysis. His ideas challenged Keynesian dominance in the mid-20th century and revived interest in Austrian economics post-Nobel.
A cornerstone of Hayek's influence is his articulation of the "knowledge problem" in economics. In his seminal 1945 paper "The Use of Knowledge in Society," he described prices as a decentralized mechanism for aggregating dispersed information, enabling spontaneous coordination without central planning. This view portrayed markets as a "marvel" of telecommunications, transmitting signals about scarcity and preferences. It deepened understanding of resource allocation, inspired research in information economics, and critiqued socialism's inability to replicate this process, as elaborated in The Road to Serfdom (1944), which warned against collectivism leading to totalitarianism.
Hayek also advanced the concept of "spontaneous order," where complex social structures—like markets, law, and language—emerge from individual actions without deliberate design. This evolutionary perspective influenced institutional economics, political economy, and complexity theory, emphasizing that institutions evolve through trial and error rather than rational construction. He critiqued "scientism" in social sciences, arguing against imitating physical sciences' methods, as human behavior involves subjective purposes and unintended consequences.
Broader Influence and Legacy
Hayek's interdisciplinary approach linked economics with social and institutional factors, impacting fields beyond pure theory. His work on the functional efficiency of economic systems highlighted markets' superiority in handling uncertainty and change. This informed neoliberal policies in the late 20th century, influencing leaders like Margaret Thatcher and Ronald Reagan, who drew on his ideas for deregulation and free-market reforms. He co-founded the Mont Pèlerin Society in 1947, a key network for liberal economists, including Milton Friedman.
His Nobel award revitalized Austrian economics, sparking renewed debate on free markets versus interventionism. Today, Hayek's insights on price signals apply to areas like information asymmetry, blockchain, and AI-driven economies, while his warnings about over-centralization remain relevant in discussions of globalization and policy design. Overall, Hayek shifted economic sciences toward appreciating decentralized processes, individual liberty, and the humility of knowledge limits, countering top-down models and fostering a more dynamic view of societal progress.
1988 Leon Lederman in Physics
2015 SOLD for $ 765K by Nate D Sanders
The existence of an electrically neutral particle which only reacts to the weak interaction was suspected in period by Pauli in 1930. It would have been emitted from the nucleus in the process of the conservation of energy in a radioactive reaction. Fermi named it the neutrino in 1932.
The hitherto supposed undetectable neutrino was detected in 1956 by Cowan and Reines. Reines received the Nobel Prize in Physics in 1995, 21 years after Cowan's death.
In 1962 Lederman, Schwartz and Steinberger discovered the muon neutrino, demonstrating by the way the existence of more than one type of neutrino. They were awarded the 1988 Nobel Prize in Physics.
The Nobel medal awarded to Leon Lederman was sold in his lifetime for $ 765K by Nate D. Sanders on May 28, 2015. It is narrated in a post sale report by the auction house and AP.
1988 Nobel prize to Lederman. Define his influence in the advancement of Physics.
Leon Lederman, an American experimental physicist, was awarded the 1988 Nobel Prize in Physics jointly with Melvin Schwartz and Jack Steinberger "for the neutrino beam method and the demonstration of the doublet structure of the leptons through the discovery of the muon neutrino." This groundbreaking work, conducted in 1962 at Brookhaven National Laboratory, involved creating the world's first high-energy neutrino beam using a particle accelerator, which allowed them to detect and identify the muon neutrino—a second type of neutrino distinct from the electron neutrino. This discovery confirmed the existence of lepton families (doublets), providing key evidence for the structure of fundamental particles and laying foundational groundwork for the Standard Model of particle physics.
Beyond the Nobel-winning research, Lederman's influence extended across several decades and facets of physics. In 1956, while at Columbia University and Brookhaven, he contributed to the discovery of the long-lived neutral K-meson (kaon), advancing knowledge of strange particles and weak interactions. His experimental innovations helped elevate particle physics by demonstrating how accelerators could probe subatomic phenomena previously only observable in cosmic rays.
As a leader, Lederman served as director of Fermilab from 1979 to 1989, where he unified the lab's staff, rallied the U.S. particle physics community, and oversaw major advancements in high-energy research, including the development of the Tevatron collider. He influenced science policy, advocating for funding and infrastructure in particle physics, and earned numerous honors, including the National Medal of Science (1965), Wolf Prize (1982), Enrico Fermi Award (1992), and Vannevar Bush Award (2012) for his lifelong contributions.
Lederman was also a passionate educator and communicator, coining the term "God particle" for the Higgs boson in his popular book and founding programs to improve science education, such as the Illinois Mathematics and Science Academy. His efforts demystified complex physics for the public and inspired future generations, cementing his legacy as a trailblazer who not only expanded scientific frontiers but also bridged physics with society.
The hitherto supposed undetectable neutrino was detected in 1956 by Cowan and Reines. Reines received the Nobel Prize in Physics in 1995, 21 years after Cowan's death.
In 1962 Lederman, Schwartz and Steinberger discovered the muon neutrino, demonstrating by the way the existence of more than one type of neutrino. They were awarded the 1988 Nobel Prize in Physics.
The Nobel medal awarded to Leon Lederman was sold in his lifetime for $ 765K by Nate D. Sanders on May 28, 2015. It is narrated in a post sale report by the auction house and AP.
1988 Nobel prize to Lederman. Define his influence in the advancement of Physics.
Leon Lederman, an American experimental physicist, was awarded the 1988 Nobel Prize in Physics jointly with Melvin Schwartz and Jack Steinberger "for the neutrino beam method and the demonstration of the doublet structure of the leptons through the discovery of the muon neutrino." This groundbreaking work, conducted in 1962 at Brookhaven National Laboratory, involved creating the world's first high-energy neutrino beam using a particle accelerator, which allowed them to detect and identify the muon neutrino—a second type of neutrino distinct from the electron neutrino. This discovery confirmed the existence of lepton families (doublets), providing key evidence for the structure of fundamental particles and laying foundational groundwork for the Standard Model of particle physics.
Beyond the Nobel-winning research, Lederman's influence extended across several decades and facets of physics. In 1956, while at Columbia University and Brookhaven, he contributed to the discovery of the long-lived neutral K-meson (kaon), advancing knowledge of strange particles and weak interactions. His experimental innovations helped elevate particle physics by demonstrating how accelerators could probe subatomic phenomena previously only observable in cosmic rays.
As a leader, Lederman served as director of Fermilab from 1979 to 1989, where he unified the lab's staff, rallied the U.S. particle physics community, and oversaw major advancements in high-energy research, including the development of the Tevatron collider. He influenced science policy, advocating for funding and infrastructure in particle physics, and earned numerous honors, including the National Medal of Science (1965), Wolf Prize (1982), Enrico Fermi Award (1992), and Vannevar Bush Award (2012) for his lifelong contributions.
Lederman was also a passionate educator and communicator, coining the term "God particle" for the Higgs boson in his popular book and founding programs to improve science education, such as the Illinois Mathematics and Science Academy. His efforts demystified complex physics for the public and inspired future generations, cementing his legacy as a trailblazer who not only expanded scientific frontiers but also bridged physics with society.
1993 Kary Mullis in Chemistry
2016 SOLD for $ 670K by Bonhams
Life exists because the chains of the DNA molecule have the capability to replicate. The discovery of the double helix structure by the team of crystallographers of Crick and Watson in 1953 was followed as early as 1956 by the discovery of the catalyst by a biochemist, Kornberg.
The molecular phenomena are too small to be studied individually but the challenge is immense. Genetic defects or viral attacks would be best countered if their mechanisms were modeled on the scale of the chain sequence.
The early tests for the replication in vitro of complete DNA sequences are discouraging by their processing time and their low yield. Chemists take control in their turn of that problem. In 1982, a publication by Dr. Kary Mullis working for Cetus company provides the solution, identified as PCR (Polymerase Chain Reaction).
Once the chain carrying the property to be analyzed is isolated, it is put in the presence of a nourishing primer and subjected to successive cycles of heating and cooling. The reaction is fast and the population growth is exponential. The invention of Mullis is intuitive. His great merit is to have proved the correctness of his concept by developing the appropriate machine. The impact on genetic engineering is immediate.
Mullis received the 1993 Nobel Prize in Chemistry, shared with the biochemist Michael Smith.
On February 14, 2016, Bonhams sold in one lot for $ 670K from a lower estimate of $ 450K the Nobel medal of Dr. Mullis along with his Nobel diploma, a copy of his lecture and several other documents, lot 93.
Mullis was the third Nobel winner to sell his own medal at auction, after Watson and Lederman.
Please watch his interview by Bonhams in the preparation of the sale.
1993 Nobel prize to Mullis. Define his influence on the advancement of Chemistry.
Kary Mullis was awarded the Nobel Prize in Chemistry in 1993 for his invention of the polymerase chain reaction (PCR), a groundbreaking technique that allows for the rapid amplification of specific DNA segments. This method, conceived by Mullis in 1983 while working at Cetus Corporation, fundamentally transformed the field of chemistry by enabling scientists to produce millions of copies of a single DNA molecule from minute samples, overcoming previous limitations in DNA manipulation and analysis.
PCR's influence on the advancement of chemistry is profound and multifaceted. At its core, it revolutionized DNA-based chemistry by providing a simple, efficient way to amplify genetic material using heat-stable enzymes (like Taq polymerase), oligonucleotides, and repeated cycles of heating and cooling. This innovation shifted DNA research from being labor-intensive and limited by sample size to highly scalable and precise, accelerating progress in molecular biology and biochemistry. For instance, it made possible the sequencing of the human genome, the study of ancient DNA from fossils (such as a 40,000-year-old mammoth), and the development of recombinant DNA technologies.
Beyond pure chemistry, Mullis's work spurred exponential growth in related fields, including:
The molecular phenomena are too small to be studied individually but the challenge is immense. Genetic defects or viral attacks would be best countered if their mechanisms were modeled on the scale of the chain sequence.
The early tests for the replication in vitro of complete DNA sequences are discouraging by their processing time and their low yield. Chemists take control in their turn of that problem. In 1982, a publication by Dr. Kary Mullis working for Cetus company provides the solution, identified as PCR (Polymerase Chain Reaction).
Once the chain carrying the property to be analyzed is isolated, it is put in the presence of a nourishing primer and subjected to successive cycles of heating and cooling. The reaction is fast and the population growth is exponential. The invention of Mullis is intuitive. His great merit is to have proved the correctness of his concept by developing the appropriate machine. The impact on genetic engineering is immediate.
Mullis received the 1993 Nobel Prize in Chemistry, shared with the biochemist Michael Smith.
On February 14, 2016, Bonhams sold in one lot for $ 670K from a lower estimate of $ 450K the Nobel medal of Dr. Mullis along with his Nobel diploma, a copy of his lecture and several other documents, lot 93.
Mullis was the third Nobel winner to sell his own medal at auction, after Watson and Lederman.
Please watch his interview by Bonhams in the preparation of the sale.
1993 Nobel prize to Mullis. Define his influence on the advancement of Chemistry.
Kary Mullis was awarded the Nobel Prize in Chemistry in 1993 for his invention of the polymerase chain reaction (PCR), a groundbreaking technique that allows for the rapid amplification of specific DNA segments. This method, conceived by Mullis in 1983 while working at Cetus Corporation, fundamentally transformed the field of chemistry by enabling scientists to produce millions of copies of a single DNA molecule from minute samples, overcoming previous limitations in DNA manipulation and analysis.
PCR's influence on the advancement of chemistry is profound and multifaceted. At its core, it revolutionized DNA-based chemistry by providing a simple, efficient way to amplify genetic material using heat-stable enzymes (like Taq polymerase), oligonucleotides, and repeated cycles of heating and cooling. This innovation shifted DNA research from being labor-intensive and limited by sample size to highly scalable and precise, accelerating progress in molecular biology and biochemistry. For instance, it made possible the sequencing of the human genome, the study of ancient DNA from fossils (such as a 40,000-year-old mammoth), and the development of recombinant DNA technologies.
Beyond pure chemistry, Mullis's work spurred exponential growth in related fields, including:
- Biotechnology and industry: PCR fueled the biotech boom, creating a multi-billion-dollar market through applications in drug design, genetic engineering, and diagnostics. It enabled small teams to manipulate DNA directly, democratizing access to advanced genetic tools and contributing to the rise of startups in the sector.
- Medicine and diagnostics: The technique became essential for detecting pathogens, genetic disorders, and cancers, as seen in its role as the gold standard for COVID-19 testing. It also advanced personalized medicine by allowing rapid analysis of genetic variations.
- Forensics and paleontology: PCR's ability to amplify trace DNA transformed criminal investigations (e.g., identifying suspects from tiny samples) and enabled the study of extinct species' genomes, expanding the scope of bioorganic chemistry.
1994 John Nash in Economic Sciences
2019 SOLD for $ 735K by Christie's
The 1994 Nobel Prize in Economic Sciences was awarded to Harsanyi, Nash and Selten "for their pioneering analysis of equilibria in the theory of non-cooperative games". The scientific contribution by Selten had been to define a ultimate equilibrium within Nash theories.
Knowing the initial state of a situation and the characters in the action, it is tempting to use scientific models to predict the outcome. The pioneers of this game theory were Von Neumann, Zermelo and Morgenstern.
John F. Nash, Jr. is a brilliant mathematician and thinker at Princeton University where he has the opportunity to meet Von Neumann. His first observation is of the highest relevance : no economic theory before him has considered the behavior in bargaining.
His thesis dissertation in 1950 focuses on his own new model within the game theory allowing for a non-cooperative behavior between players and assuming that the conclusion is a state of equilibrium. The undisclosed behavior of a negotiator can be either friendly or hostile. A set of initial conditions can lead to various Nash equilibria and the prediction takes into account a probability factor. Extended to several players, the calculation of a Nash equilibrium reaches an extreme complexity.
Life is not a game. After these exceptional beginnings, Nash becomes schizophrenic. His work is recognized but his person is forgotten. It is to the credit of the Nobel Committee to have retrieved and rewarded him in 1994.
This event is significant. For the first time a Nobel Prize is awarded for contributions to the game theory. Nash, unemployed at the time of his Nobel Prize, is proud that his work is highlighted and starts a new life.
On October 25, 2019, Christie's sold the Nobel medals and diplomas of John Forbes Nash Jr and Reinhard Selten, both accompanied with documents or photos related to their Nobel award.
Nash's Nobel set was sold for $ 735K from a lower estimate of $ 500K, lot 61, and Selten's for $ 225K, lot 62. Lot 60, sold for $ 135K, was a copy of Nash's 1951 doctoral thesis. The Nash Nobel had passed at Sotheby's in a single lot auction on October 17, 2016. Please watch the video shared by Sotheby's.
1994 Nobel prize to Nash. Define his influence in the advancement of Economic Sciences.
John Forbes Nash Jr. was awarded the 1994 Nobel Memorial Prize in Economic Sciences, shared with John Harsanyi and Reinhard Selten, for their pioneering work on equilibria in non-cooperative game theory. Nash's contributions, particularly from his 1950 PhD dissertation, fundamentally transformed economic analysis by providing tools to model strategic interactions where individuals or firms pursue their own interests without enforceable cooperation.
At the core of Nash's influence is the concept of Nash equilibrium, which he formalized as a solution for non-cooperative games involving any number of players with arbitrary preferences. In a Nash equilibrium, each player's strategy is optimal given the strategies chosen by others, and no player has an incentive to unilaterally deviate, assuming rational behavior and complete information. This extended earlier game theory (like von Neumann's zero-sum games) to more realistic scenarios, allowing economists to predict outcomes in situations of conflict and interdependence.
Nash's work distinguished between cooperative games (where binding agreements are possible) and non-cooperative ones (where they are not), shifting focus to the latter, which better reflects many real-world economic settings like oligopolies, auctions, and negotiations. His equilibrium concept has become a cornerstone of modern economics, applied in fields such as industrial organization (e.g., modeling firm competition), international trade (e.g., tariff negotiations), public economics (e.g., tax evasion), and behavioral economics (e.g., analyzing deviations from rationality). For instance, it underpins models of market entry, pricing strategies, and resource allocation where self-interest drives decisions.
Beyond equilibrium, Nash advanced bargaining theory by showing that the division of gains in negotiations depends on each party's alternatives and utilities, leading to a unique solution that maximizes the product of their utilities. This resolved indeterminacy in earlier models and influenced contract theory and labor economics.
Overall, Nash's innovations elevated game theory from a niche mathematical tool to a central framework in economic sciences, enabling rigorous analysis of strategic behavior across disciplines and inspiring subsequent developments like evolutionary game theory. His ideas continue to shape policy analysis, from antitrust regulations to environmental agreements, demonstrating how individual rationality aggregates into stable social outcomes.
Knowing the initial state of a situation and the characters in the action, it is tempting to use scientific models to predict the outcome. The pioneers of this game theory were Von Neumann, Zermelo and Morgenstern.
John F. Nash, Jr. is a brilliant mathematician and thinker at Princeton University where he has the opportunity to meet Von Neumann. His first observation is of the highest relevance : no economic theory before him has considered the behavior in bargaining.
His thesis dissertation in 1950 focuses on his own new model within the game theory allowing for a non-cooperative behavior between players and assuming that the conclusion is a state of equilibrium. The undisclosed behavior of a negotiator can be either friendly or hostile. A set of initial conditions can lead to various Nash equilibria and the prediction takes into account a probability factor. Extended to several players, the calculation of a Nash equilibrium reaches an extreme complexity.
Life is not a game. After these exceptional beginnings, Nash becomes schizophrenic. His work is recognized but his person is forgotten. It is to the credit of the Nobel Committee to have retrieved and rewarded him in 1994.
This event is significant. For the first time a Nobel Prize is awarded for contributions to the game theory. Nash, unemployed at the time of his Nobel Prize, is proud that his work is highlighted and starts a new life.
On October 25, 2019, Christie's sold the Nobel medals and diplomas of John Forbes Nash Jr and Reinhard Selten, both accompanied with documents or photos related to their Nobel award.
Nash's Nobel set was sold for $ 735K from a lower estimate of $ 500K, lot 61, and Selten's for $ 225K, lot 62. Lot 60, sold for $ 135K, was a copy of Nash's 1951 doctoral thesis. The Nash Nobel had passed at Sotheby's in a single lot auction on October 17, 2016. Please watch the video shared by Sotheby's.
1994 Nobel prize to Nash. Define his influence in the advancement of Economic Sciences.
John Forbes Nash Jr. was awarded the 1994 Nobel Memorial Prize in Economic Sciences, shared with John Harsanyi and Reinhard Selten, for their pioneering work on equilibria in non-cooperative game theory. Nash's contributions, particularly from his 1950 PhD dissertation, fundamentally transformed economic analysis by providing tools to model strategic interactions where individuals or firms pursue their own interests without enforceable cooperation.
At the core of Nash's influence is the concept of Nash equilibrium, which he formalized as a solution for non-cooperative games involving any number of players with arbitrary preferences. In a Nash equilibrium, each player's strategy is optimal given the strategies chosen by others, and no player has an incentive to unilaterally deviate, assuming rational behavior and complete information. This extended earlier game theory (like von Neumann's zero-sum games) to more realistic scenarios, allowing economists to predict outcomes in situations of conflict and interdependence.
Nash's work distinguished between cooperative games (where binding agreements are possible) and non-cooperative ones (where they are not), shifting focus to the latter, which better reflects many real-world economic settings like oligopolies, auctions, and negotiations. His equilibrium concept has become a cornerstone of modern economics, applied in fields such as industrial organization (e.g., modeling firm competition), international trade (e.g., tariff negotiations), public economics (e.g., tax evasion), and behavioral economics (e.g., analyzing deviations from rationality). For instance, it underpins models of market entry, pricing strategies, and resource allocation where self-interest drives decisions.
Beyond equilibrium, Nash advanced bargaining theory by showing that the division of gains in negotiations depends on each party's alternatives and utilities, leading to a unique solution that maximizes the product of their utilities. This resolved indeterminacy in earlier models and influenced contract theory and labor economics.
Overall, Nash's innovations elevated game theory from a niche mathematical tool to a central framework in economic sciences, enabling rigorous analysis of strategic behavior across disciplines and inspiring subsequent developments like evolutionary game theory. His ideas continue to shape policy analysis, from antitrust regulations to environmental agreements, demonstrating how individual rationality aggregates into stable social outcomes.
2021 Dmitry Muratov Peace Prize
2022 SOLD for $ 103.5M by Heritage
In 1993 Mikhail Gorbachev used the money from his 1990 Nobel Peace prize to help founding an independent Russian newspaper, the Novaya Gazeta. The key personality for this operation is Dmitry Muratov, editor in chief from 1995 excepted a two year hiatus from 2017.
It is indeed not a comfortable task. From 2000 to 2009 six of its journalists including two women have been killed in a direct following of their professional investigations.
The 2021 Nobel Peace prize was shared between the Filipino journalist Maria Ressa and Muratov "for their efforts to safeguard freedom of expression, which is a precondition for democracy and lasting peace."
During the Russian-Ukrainian war, Muratov decided on March 22, 2022 to sell his medal to support UNICEF's humanitarian response for children in Ukraine and neighboring countries.
It was sold for $ 103.5M in a single lot auction operated by Heritage on June 20 which is also the World Refugee Day. The bidding was opened on June 1 which is Children's Day in Ukraine. The event is approved by the Norwegian Nobel Institute as a "generous act of humanitarianism very much in the spirit of Alfred Nobel". Please watch the video of an interview of Muratov about that project, shared by the auction house.
A precedent is the sale by Niels Bohr of his Nobel Prize in Physics medal to benefit Finnish relief during the Second World War.
The Russian edition of the Novaya Gazeta was suspended on March 28, 2022 after two warnings from the Russian agency in charge of the control of the communication. Muratov was subsequently splashed by an assailant in the eyes with a mixture of red paint and acetone.
Grok thought :
Quote
AFP News Agency @AFP Jun 21, 2022
#UPDATE Dmitry Muratov, the Russian editor-in-chief of the independent newspaper Novaya Gazeta, has auctioned off his Nobel Peace Prize gold medal for a whopping $103.5 million. All of the proceeds will go to UNICEF's Humanitarian Response for Ukrainian Children Displaced by War
Dmitry Muratov, a Russian journalist and editor-in-chief of the independent newspaper Novaya Gazeta, was co-awarded the 2021 Nobel Peace Prize alongside Filipino journalist Maria Ressa. The prize recognized their efforts to safeguard freedom of expression, which the Nobel Committee described as a precondition for democracy and lasting peace.
Muratov's influence on improving peace stems primarily from his leadership at Novaya Gazeta, one of Russia's last major independent media outlets, where he has championed investigative journalism exposing corruption, human rights abuses, and abuses of power. This work has promoted transparency, accountability, and democratic values in a challenging environment, often at great personal risk—six of his colleagues at the newspaper have been murdered. By defending press freedom against state suppression, Muratov has contributed to broader global efforts to prevent conflict through informed public discourse and resistance to authoritarianism. His actions, including suspending Novaya Gazeta's operations in March 2022 amid Kremlin crackdowns following Russia's invasion of Ukraine, underscore his commitment to ethical journalism as a tool for peace.
Muratov auctioned his Nobel Peace Prize medal in June 2022 for a record $103.5 million, with all proceeds directed to UNICEF to support humanitarian relief for Ukrainian child refugees and their families displaced by the ongoing war. He initiated the sale to provide these children with "a chance for a future" amid the crisis, marking him as the first living Nobel laureate known to sell their medal for such a cause.
It is indeed not a comfortable task. From 2000 to 2009 six of its journalists including two women have been killed in a direct following of their professional investigations.
The 2021 Nobel Peace prize was shared between the Filipino journalist Maria Ressa and Muratov "for their efforts to safeguard freedom of expression, which is a precondition for democracy and lasting peace."
During the Russian-Ukrainian war, Muratov decided on March 22, 2022 to sell his medal to support UNICEF's humanitarian response for children in Ukraine and neighboring countries.
It was sold for $ 103.5M in a single lot auction operated by Heritage on June 20 which is also the World Refugee Day. The bidding was opened on June 1 which is Children's Day in Ukraine. The event is approved by the Norwegian Nobel Institute as a "generous act of humanitarianism very much in the spirit of Alfred Nobel". Please watch the video of an interview of Muratov about that project, shared by the auction house.
A precedent is the sale by Niels Bohr of his Nobel Prize in Physics medal to benefit Finnish relief during the Second World War.
The Russian edition of the Novaya Gazeta was suspended on March 28, 2022 after two warnings from the Russian agency in charge of the control of the communication. Muratov was subsequently splashed by an assailant in the eyes with a mixture of red paint and acetone.
Grok thought :
Quote
AFP News Agency @AFP Jun 21, 2022
#UPDATE Dmitry Muratov, the Russian editor-in-chief of the independent newspaper Novaya Gazeta, has auctioned off his Nobel Peace Prize gold medal for a whopping $103.5 million. All of the proceeds will go to UNICEF's Humanitarian Response for Ukrainian Children Displaced by War
- AFP's post updates a breaking news thread on Russian journalist Dmitry Muratov's auction of his 2021 Nobel Peace Prize medal, which fetched a record $103.5 million from an anonymous bidder, far surpassing the $5 million he hoped for.
- The proceeds fully support UNICEF's aid for over 5 million Ukrainian children displaced by Russia's invasion, including refugees in Russia, with Muratov selecting the agency for its transparent reporting and non-political humanitarian focus.
Dmitry Muratov, a Russian journalist and editor-in-chief of the independent newspaper Novaya Gazeta, was co-awarded the 2021 Nobel Peace Prize alongside Filipino journalist Maria Ressa. The prize recognized their efforts to safeguard freedom of expression, which the Nobel Committee described as a precondition for democracy and lasting peace.
Muratov's influence on improving peace stems primarily from his leadership at Novaya Gazeta, one of Russia's last major independent media outlets, where he has championed investigative journalism exposing corruption, human rights abuses, and abuses of power. This work has promoted transparency, accountability, and democratic values in a challenging environment, often at great personal risk—six of his colleagues at the newspaper have been murdered. By defending press freedom against state suppression, Muratov has contributed to broader global efforts to prevent conflict through informed public discourse and resistance to authoritarianism. His actions, including suspending Novaya Gazeta's operations in March 2022 amid Kremlin crackdowns following Russia's invasion of Ukraine, underscore his commitment to ethical journalism as a tool for peace.
Muratov auctioned his Nobel Peace Prize medal in June 2022 for a record $103.5 million, with all proceeds directed to UNICEF to support humanitarian relief for Ukrainian child refugees and their families displaced by the ongoing war. He initiated the sale to provide these children with "a chance for a future" amid the crisis, marking him as the first living Nobel laureate known to sell their medal for such a cause.
