How Do You Spell MARSHALL WARREN NIRENBERG?

Pronunciation: [mˈɑːʃə͡l wˈɒɹən nˈa͡ɪ͡ənbɜːɡ] (IPA)

Marshall Warren Nirenberg was an American biochemist and geneticist who won the Nobel Prize in Physiology or Medicine in 1968 for his work on the genetic code. "Marshall" is pronounced as /ˈmɑːrʃəl/, "Warren" as /ˈwɔːrən/, and "Nirenberg" as /ˈnaɪrənbɜːrɡ/. The spelling of "Nirenberg" comes from its Yiddish origin, where "berg" means mountain and "nir" means near or close. Nirenberg's scientific contributions revolutionized the understanding of the relationship between DNA and proteins in genetic code and paved the way for modern biotechnology.

MARSHALL WARREN NIRENBERG Meaning and Definition

  1. Marshall Warren Nirenberg (1927-2010) was an American biochemist and molecular biologist who made significant advancements in our understanding of the genetic code. He shared the Nobel Prize in Physiology or Medicine in 1968 with Har Gobind Khorana and Robert W. Holley for their contributions to deciphering the code that carries genetic information from DNA to proteins.

    Nirenberg's pioneering work involved the identification of the nucleotide triplets, known as codons, that specify each of the 20 amino acids found in proteins. He devised experiments using synthetic RNA molecules to decipher the sequence of codons and determine their corresponding amino acids. This breakthrough laid the foundation for our understanding of how the information stored in DNA is translated into the proteins responsible for various biological functions.

    Through his research, Nirenberg demonstrated that the genetic code is universal, meaning that the same codons code for the same amino acids across different species. His work was instrumental in facilitating genetic research, as it provided a standardized language for deciphering the instructions encoded in DNA.

    Nirenberg's contributions revolutionized the field of molecular biology and paved the way for subsequent breakthroughs, including genetic engineering and the study of genetic diseases. His work marked a crucial step towards understanding the central dogma of biology, which explains how the information in DNA is used to build proteins, ultimately governing the functioning of living organisms.