Reflections from Nobel laureates in chemistry.

Since the first award in 1901, the Nobel Prize has come to signify the pinnacle of scientific achievement. In this Voices piece in the August special issue of Cell Chemical Biology entitled "Bridging chemistry and biology," we ask Nobel laureates to reflect on the impact the prize had on them. We learn how it affected their life or work, their outlook on science, the lessons learned, and their advice for the next generation of scientists.

Newly discovered letter: why Muller failed to cite the negative mouse mutation findings of Snell, preserving his chances to receive the Nobel Prize.

A recently acquired letter between Hermann Muller and his wife (March 21, 1933) reveals that Muller had learned that he had been nominated for the Nobel Prize in 1932 with about 1/3 of the total votes being supportive. Muller was hopeful that over time sufficient votes would lead to receiving the award. The knowledge of Muller on this matter and its timing provide a likely explanation why Muller never cited the negative mouse mutation findings of George Snell, performed under Muller's direction during that time period. This action of Muller, along with the failure of Snell to promote his discovery, greatly reduced the chances that those findings would complicate his attempt to garner support for his LNT single-hit model and its application to hereditary and cancer risk assessment. It also helped Muller achieve the Nobel Prize, allowing him the necessary international visibility to promote his ideologically driven ionizing radiation-related LNT-based paradigm.

Trajectories of biomedical research leading to Nobel Prize-winning discoveries.

Significant advancements in public health come from scientific discoveries, but more are needed to meet the ever-growing societal needs. Examining the best practices of outstanding scientists may help develop future researchers and lead to more discoveries. This study compared the comprehensive work of 49 Nobel laureates in Physiology or Medicine from 2000 to 2019 to a matched control of National Institutes of Health (NIH)-funded biomedical investigators. Our unique data set, comprising 11,737 publications, 571 US patents, and 1693 NIH research awards produced by pre-Nobel laureates, was compared to a similar data set of control researchers. Compared to control researchers, pre-Nobel laureates produce significantly more publications annually (median = 5.66; interquartile range [IQR] = 5.16); significantly fewer coauthors per publication (median = 3.32; IQR = 1.95); consistently higher Journal Impact Factor publications (median = 12.04; IQR = 6.83); and substantially more patents per researcher (median = 5; IQR = 14). Such differences arose from nearly identical cumulative NIH award budgets of pre-Nobel laureates (median $25.3 M) and control researchers. Nobel laureates are neither hyper-prolific (>72 papers per year) nor hyper-funded (>$100 M cumulative). An academic age-specific trajectory graph allows aspiring researchers to compare their productivity and collaboration patterns to those of pre-Nobel laureates.

Muller and mutations: mouse study of George Snell (a postdoc of Muller) fails to confirm Muller's fruit fly findings, and Muller fails to cite Snell's findings.

In 1931, Hermann J. Muller's postdoctoral student, George D. Snell (Nobel Prize recipient--1980) initiated research to replicate with mice Muller's X-ray-induced mutational findings with fruit flies. Snell failed to induce the two types of mutations of interest, based on fly data (sex-linked lethals/recessive visible mutations) even though the study was well designed, used large doses of X-rays, and was published in Genetics. These findings were never cited by Muller, and the Snell paper (Snell, Genetics 20:545-567, 1935) did not cite the 1927 Muller paper (Muller, Science 66:84, 1927). This situation raises questions concerning how Snell wrote the paper (e.g., ignoring the significance of not providing support for Muller's findings in a mammal). The question may be raised whether professional pressures were placed upon Snell to downplay the significance of his findings, which could have negatively impacted the career of Muller and the LNT theory. While Muller would receive worldwide attention, and receive the Nobel Prize in 1946 "for the discovery that mutations can be induced by X-rays," Snell's negative mutation data were almost entirely ignored by his contemporary and subsequent radiation genetics/mutation researchers. This raises questions concerning how the apparent lack of interest in Snell's negative findings helped Muller professionally, including his success in using his fruit fly data to influence hereditary and cancer risk assessment and to obtain the Nobel Prize.

Paul Berg and the origins of recombinant DNA.

In fall 1972, Paul Berg's laboratory published articles in PNAS describing two methods for constructing recombinant DNAs in vitro. He received half of the 1980 Nobel Prize in Chemistry for this landmark accomplishment. Here, we describe how this discovery came about, revolutionizing both biological research and the pharmaceutical industry.

Nobel Prize paradox: Nobel Prize, not a noble prize.

The Nobel Prize is one of the most sought-after awards in science and society. However, its reputation is not without complexities, including constraints on laureates and biases in nominations. Navigating the delicate balance between recognition and the tangible impacts of awarded contributions should offer insight into the Prize's significance beyond mere prestige and monetary value. While other awards may boast higher financial rewards, they often lack the same level of prestige. The inclusion of public figures as laureates and the extensive media coverage surrounding the Nobel Prize may further elevate its perceived importance, though this may hide a more nuanced reality. Additionally, the positive associations linked to the name "Nobel" resembling the adjective "noble" can enhance the award's prestige. This subtle connection to "nobility" adds a layer of honor and distinction to the Prize, contributing to its perceived significance and prestige. Moreover, the overrepresentation of Nobel laureates from specific countries prompts scrutiny over the fulfillment of Nobel's testament, which prioritizes contributions to global well-being. This discrepancy raises questions about the inclusivity and global impact of the Prize.

Voices: Challenges and opportunities for bioorthogonal chemistry.

Bioorthogonal chemistry was deservedly recognized with the 2022 Nobel Prize in Chemistry, having transformed the way chemists and biologists interrogate biological systems in the past twenty years. This Voices piece asks researchers from a range of backgrounds: what are some major challenges and opportunities facing the field in coming years?

Aspectos de la vida y obra del Dr. Bernardo Alberto Houssay / Aspects of the life and work of Dr. Bernardo Alberto Houssay

Con motivo del Día Mundial de la Ciencia y la Tecnología, se realizó en la Casa Museo Bernardo Houssay un conversatorio en el que expertos biógrafos resaltaron algunos aspectos de la trayectoria profesional del Premio Nobel de Medicina de 1947, destacando su actividad como investigador en fisiología y sus cualidades humanas. Estos importantes estudiosos del tema compartieron sus conocimientos en un selecto auditorio. (AU)

On the occasion of World Science and Technology Day, a discussion was held at the Bernardo Houssay House Museum in which expert biographers highlighted some aspects of the professional career of the 1947 Nobel Prize in Medicine, highlighting his activity as a researcher in physiology and his human qualities. These important scholars of the subject shared their knowledge in a select audience. (AU)

[The Nobel Prize in Physiology or Medicine 2023: Katalin Karikó and Drew Weissman - A vaccine revolution driven by fundamental research in immunology and molecular biology]. / Prix Nobel de physiologie ou médecine 2023 : Katalin Karikó et Drew Weissman - Une révolution vaccinale portée par la recherche fondamentale en immunologie et en biologie moléculaire.

Title: Prix Nobel de physiologie ou médecine 2023 : Katalin Karikó et Drew Weissman - Une révolution vaccinale portée par la recherche fondamentale en immunologie et en biologie moléculaire. Abstract: Le 2 octobre 2023, le prix Nobel de physiologie ou médecine a été décerné à Katalin Karikó et Drew Weissman, tous deux professeurs à l'université de Pennsylvanie, pour leur « découverte concernant les modifications des nucléosides qui ont permis le développement de vaccins ARN efficaces contre le COVID-19 ¼. Le communiqué du comité Nobel indique que « grâce à leurs découvertes exceptionnelles qui ont changé radicalement notre compréhension des mécanismes par lesquels l'ARN messager interagit avec notre système immunitaire, ces deux lauréats ont contribué au développement, avec une rapidité sans précédent, d'un vaccin contre l'une des plus grandes menaces des temps modernes affectant la santé humaine ¼.

Disparities in funding for Nobel Prize awards in medicine and physiology across nationalities, races, and gender.

Since 1901, the Nobel Prize in Physiology and Medicine has been awarded to numerous individuals for their outstanding contributions. This article presents a comprehensive analysis of the Nobel Prize recipients, focusing on gender, race, and nationality. We observe that an alarming disparity emerges when we examine the underrepresentation of Black scientists among Nobel laureates. Furthermore, trends in nationalities show how Americans make up the majority of Nobel Prize winners, while there is a noticeable lack of gender and racial minority winners of the Nobel Prize in Physiology and Medicine. Together, this highlights the importance of diversity and inclusion in scientific achievement. We offer suggestions and techniques, including funding opportunities and expanding nominators, to improve the gender, racial, and geographical diversity of Nobel Prizes.