SummaryMolecular chaperones assist the folding of newly translated and stress-denatured proteins. In prokaryotes, overlapping sets of chaperones mediate both processes. In contrast, we find that eukaryotes evolved distinct chaperone networks to carry out these functions. Genomic and functional analyses indicate that in addition to stress-inducible chaperones that protect the cellular proteome from stress, eukaryotes contain a stress-repressed chaperone network that is dedicated to protein biogenesis. These stress-repressed chaperones are transcriptionally, functionally, and physically linked to the translational apparatus and associate with nascent polypeptides emerging from the ribosome. Consistent with a function in de novo protein foldin...
Molecular chaperones assist de novo protein folding and facilitate the refolding of stress‐denatured...
AbstractTrigger factor and DnaK protect nascent protein chains from misfolding and aggregation in th...
The folding of newly synthesized proteins into their native structures is a fundamental but failure ...
AbstractSome proteins synthesized by growing eukaryotic cells are transferred along unidirectional p...
SummaryIn eukaryotic cells a molecular chaperone network associates with translating ribosomes, assi...
AbstractThe physiological roles of the molecular chaperones trigger factor and DnaK in de novo prote...
The sensitivity of the protein-folding environment to chaperone disruption can be highly tissue-spec...
Proteins are composed of linear chains of amino acids. Upon synthesis in the cell, most proteins mus...
Proteins are composed of linear chains of amino acids. Upon synthesis in the cell, most proteins mus...
Two classes of chaperonins are known in all groups of organisms to participate in the folding of new...
After the discovery of the need for extensive assistance in protein folding in the case of many nasc...
Eukaryotic genomes are mosaics of genes acquired from their prokaryotic ancestors, the eubacterial e...
Our work suggests that the forces that govern protein folding exert a profound effect on how genotyp...
Molecular chaperones are highly conserved proteins that promote proper folding of other proteinsin v...
In the crowded environment of human cells, folding of nascent polypeptides and refolding of stress-u...
Molecular chaperones assist de novo protein folding and facilitate the refolding of stress‐denatured...
AbstractTrigger factor and DnaK protect nascent protein chains from misfolding and aggregation in th...
The folding of newly synthesized proteins into their native structures is a fundamental but failure ...
AbstractSome proteins synthesized by growing eukaryotic cells are transferred along unidirectional p...
SummaryIn eukaryotic cells a molecular chaperone network associates with translating ribosomes, assi...
AbstractThe physiological roles of the molecular chaperones trigger factor and DnaK in de novo prote...
The sensitivity of the protein-folding environment to chaperone disruption can be highly tissue-spec...
Proteins are composed of linear chains of amino acids. Upon synthesis in the cell, most proteins mus...
Proteins are composed of linear chains of amino acids. Upon synthesis in the cell, most proteins mus...
Two classes of chaperonins are known in all groups of organisms to participate in the folding of new...
After the discovery of the need for extensive assistance in protein folding in the case of many nasc...
Eukaryotic genomes are mosaics of genes acquired from their prokaryotic ancestors, the eubacterial e...
Our work suggests that the forces that govern protein folding exert a profound effect on how genotyp...
Molecular chaperones are highly conserved proteins that promote proper folding of other proteinsin v...
In the crowded environment of human cells, folding of nascent polypeptides and refolding of stress-u...
Molecular chaperones assist de novo protein folding and facilitate the refolding of stress‐denatured...
AbstractTrigger factor and DnaK protect nascent protein chains from misfolding and aggregation in th...
The folding of newly synthesized proteins into their native structures is a fundamental but failure ...