Linked from

The 59 pages that link to Ribosome, each with the reason it gives.

• X-ray crystallographyBroader topic: X-ray crystallography helped reveal the atomic organization of its large subunits.

• Amino acidRelated: The ribosome links amino acids in the order specified by messenger RNA.

• Gene expressionRelated: It reads codons and joins amino acids during the protein-producing stage.

• EukaryoteRelated: Eukaryotic ribosomes differ in size and composition from bacterial and archaeal ribosomes.

• ProteinRelated: Ribosomes translate genetic information into amino-acid sequences.

• Protein foldingRelated: Many proteins begin folding while their chains are still emerging from the ribosome.

• ChloroplastRelated: Chloroplast ribosomes translate proteins encoded by the organelle’s own genome.

• Peptide bondRelated: Its peptidyl-transferase center forms peptide bonds as the chain grows.

• Genetic codeRelated: It coordinates codon reading and amino-acid incorporation during translation.

• BacteriaRelated: Bacterial ribosomes differ from eukaryotic ribosomes, allowing selective antibiotic targeting.

• VirusRelated: Viruses use host ribosomes to make viral proteins.

• Transfer RNARelated: It positions transfer RNA, messenger RNA, and the growing polypeptide during synthesis.

• Translation (biology)Broader topic: Its small and large subunits coordinate decoding and peptide-bond formation.

• 16S ribosomal RNANarrower topic: The 16S molecule performs its cellular role as part of a ribosome.

• Endoplasmic reticulumRelated: Ribosomes attached to the rough ER synthesize proteins destined for membranes or secretion.

• Ribosomal RNANarrower topic: Ribosomal RNA and proteins assemble into this molecular machine.

• OrganelleCompared with: Ribosomes are organelles by some definitions, despite lacking a surrounding membrane.

• ProkaryoteRelated: Prokaryotic ribosomes make proteins and differ in size from eukaryotic ribosomes.

• CytoplasmBroader topic: Ribosomes can be free in the cytosol or attached to the endoplasmic reticulum.

• CellRelated: Ribosomes turn genetic instructions into proteins needed for cellular structure and activity.

• CodonRelated: It positions each codon for decoding and joins the delivered amino acids.

• Cryo-electron microscopyRelated: Ribosomes became a landmark target for high-resolution single-particle analysis.

• Protein biosynthesisRelated: Its subunits bind the message and catalyze peptide-bond formation.

• Carl WoeseRelated: The ribosome supplied the conserved molecules whose sequences Woese compared.

• Last universal common ancestorRelated: Ribosomes occur in all cellular life, and their conserved components help trace ancient ancestry.

• Structural biologyBroader topic: Its structure explains the molecular machinery of protein synthesis.

• 50S ribosomal subunitNarrower topic: The 50S subunit works with the 30S subunit in the bacterial ribosome.

• mRNA vaccineRelated: Ribosomes read the vaccine’s instructions and build the encoded antigen.

• Protein synthesis inhibitorNarrower topic: The ribosome is the direct molecular target of this drug group.

• Viral replicationRelated: Host ribosomes usually translate viral messenger RNAs into viral proteins.

• Proteinogenic amino acidRelated: The ribosome positions aminoacyl-transfer RNAs and extends the protein chain.

• Aminoacyl-tRNA synthetaseRelated: The ribosome uses charged tRNAs, but generally does not verify their attached amino acids.

• Cell nucleusRelated: Nuclear messenger RNA is exported to ribosomes for translation.

• Bacterial protein synthesisNarrower topic: Bacterial protein synthesis is one form of the broader ribosomal process.

• Bactericidal antibioticRelated: Aminoglycosides bind bacterial ribosomes and cause mistranslation that can damage cells.

• Guanosine triphosphateRelated: GTP consumption helps coordinate accurate decoding and movement of the ribosome.

• Magnesium ionRelated: Ribosomal structure and function depend partly on Mg²⁺ interactions with ribosomal RNA.

• Non-coding RNARelated: Evidence that ribosomal RNA catalyzes peptide-bond formation revealed RNA’s catalytic capacity.

• Peptide synthesisRelated: Ribosomes synthesize peptides by positioning aminoacyl-tRNAs for successive bond formation.

• SelenocysteineRelated: Selenocysteine enters proteins during ribosomal translation, despite UGA’s usual stop function.

• Har Gobind KhoranaRelated: Ribosomes translated the synthetic RNA templates in the experiments that identified codon meanings.

• Ada YonathNarrower topic: Yonath’s career centered on resolving this complex’s structure and function.

• George Emil PaladeRelated: Palade identified ribonucleoprotein particles on the endoplasmic reticulum, later called ribosomes.

• Prokaryotic cellBroader topic: Prokaryotic ribosomes make proteins in the cytoplasm without membrane-bound compartments.

• Theodor SvedbergBroader topic: Its subunits are characterized partly by their sedimentation coefficients.

• Bacterial cell structureRelated: Bacterial ribosomes occupy the cytoplasm and build proteins from genetic instructions.

• NucleolusNarrower topic: The nucleolus supplies the subunits that combine to form functional ribosomes.

• ParomomycinNarrower topic: The ribosome is the shared cellular target behind paromomycin’s antibacterial effect.

• Robert W. HolleyRelated: The ribosome reads the codon recognized by tRNA and incorporates its attached amino acid.

• Sidney AltmanRelated: Later evidence that ribosomal RNA catalyzes peptide-bond formation extended the catalytic-RNA principle Altman helped establish.