The molecular bases of thermal and cold stability and adaptation, which allow proteins to remain folded and functional in the temperature ranges in which their host organisms live and grow, are still only partially elucidated. Indeed, both experimental and computational studies fail to yield a fully precise and global physical picture, essentially because all effects are context-dependent and thus quite intricate to unravel. We present a snapshot of the current state of knowledge of this highly complex and challenging issue, whose resolution would enable large-scale rational protein design.SCOPUS: re.jinfo:eu-repo/semantics/publishe
International audienceProteins from thermophilic and hyperthermophilic organisms are stable and func...
The growth temperature adaptation of six model proteins has been studied in 42 microorganisms belong...
The aim of this work is to elucidate how physical principles of protein design are reflected in natu...
Organisms that thrive under extreme conditions, such as high salt concentration, low pH, or high tem...
Despite the intense efforts of the last decades to understand the thermal stability of proteins, the...
This chapter outlines the evolutionary protein design methods that are used to help uncover the mole...
Inspired by Somero’s corresponding state principle that relates protein enhanced thermal stability w...
AbstractBiological cells are extremely sensitive to temperature. What is the mechanism? We compute t...
During years 2007 and 2008, we published three papers (Jahandideh, 2007a, JTB, 246, 159-166; Jahandi...
Habitats of permanently cold temperature, like polar regions for example, have been colonized by a g...
Habitats of permanently cold temperature, like polar regions for example, have been colonized by a g...
Proteins conduct a vast array of chemical processes and achieve this through a balance of flexibilit...
SummaryAs protein complexes must remain in their native conformations at habitat temperatures, therm...
The growth temperature adaptation of six model proteins has been studied in 42 microorganisms belong...
Temperature-induced cell death is thought to be due to protein denaturation, but the determinants of...
International audienceProteins from thermophilic and hyperthermophilic organisms are stable and func...
The growth temperature adaptation of six model proteins has been studied in 42 microorganisms belong...
The aim of this work is to elucidate how physical principles of protein design are reflected in natu...
Organisms that thrive under extreme conditions, such as high salt concentration, low pH, or high tem...
Despite the intense efforts of the last decades to understand the thermal stability of proteins, the...
This chapter outlines the evolutionary protein design methods that are used to help uncover the mole...
Inspired by Somero’s corresponding state principle that relates protein enhanced thermal stability w...
AbstractBiological cells are extremely sensitive to temperature. What is the mechanism? We compute t...
During years 2007 and 2008, we published three papers (Jahandideh, 2007a, JTB, 246, 159-166; Jahandi...
Habitats of permanently cold temperature, like polar regions for example, have been colonized by a g...
Habitats of permanently cold temperature, like polar regions for example, have been colonized by a g...
Proteins conduct a vast array of chemical processes and achieve this through a balance of flexibilit...
SummaryAs protein complexes must remain in their native conformations at habitat temperatures, therm...
The growth temperature adaptation of six model proteins has been studied in 42 microorganisms belong...
Temperature-induced cell death is thought to be due to protein denaturation, but the determinants of...
International audienceProteins from thermophilic and hyperthermophilic organisms are stable and func...
The growth temperature adaptation of six model proteins has been studied in 42 microorganisms belong...
The aim of this work is to elucidate how physical principles of protein design are reflected in natu...