Proteolysis of the phage λ CII regulatory protein by FtsH (HflB) of Escherichia coli

No abstract is available for this paper.

• Publication year

  1997

• Venue

  Molecular Microbiology

• Publication date

  1997-06-01

• Fields of study

  Biology, Medicine

• Identifiers
  DOI 10.1046/j.1365-2958.1997.4231796.xPMID 9218777
• External record

  Open on Semantic Scholar

• Source metadata

  Semantic Scholar, PubMed

• No claims are published for this paper.

• No concepts are published for this paper.

• The ATP-dependent HslVU protease from Escherichia coli is a four-ring structure resembling the proteasome

  1997cited by this paper
• The HflB protease of Escherichia coli degrades its inhibitor lambda cIII

  1997cited by this paper
• Role of the Heat Shock Protein DnaJ in the Lon-dependent Degradation of Naturally Unstable Proteins*

  1996cited by this paper
• ATP-dependent Degradation of CcdA by Lon Protease

  1996cited by this paper
• The tolZ gene of Escherichia coli is identified as the ftsH gene

  1996cited by this paper
• Proteases and their targets in Escherichia coli.

  1996influential reference
• Regulation ofEscherichia coliStarvation Sigma Factor (s s ) by ClpXP Protease

  1996cited by this paper
• Regulation of Escherichia coli starvation sigma factor (sigma s) by ClpXP protease

  1996cited by this paper
• FtsH (HflB) Is an ATP-dependent Protease Selectively Acting on SecY and Some Other Membrane Proteins*

  1996influential reference
• A protease complex in the Escherichia coli plasma membrane: HflKC (HflA) forms a complex with FtsH (HflB), regulating its proteolytic activity against SecY.

  1996influential reference
• Six‐fold rotational symmetry of ClpQ, the E. coli homolog of the 20S proteasome, and its ATP‐dependent activator, ClpY

  1996cited by this paper
• The HflB Protease of Escherichia coli Degrades Its Inhibitor (cid:108) cIII

  1996influential reference
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  1995cited by this paper
• Circuit simulation of genetic networks.

  1995influential reference
• Escherichia coli FtsH is a membrane‐bound, ATP‐dependent protease which degrades the heat‐shock transcription factor sigma 32.

  1995influential reference
• FtsH is required for proteolytic elimination of uncomplexed forms of SecY, an essential protein translocase subunit.

  1995cited by this paper
• Homology in structural organization between E. coli ClpAP protease and the eukaryotic 26 S proteasome.

  1995cited by this paper
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  1995influential reference
• Degradation of sigma 32, the heat shock regulator in Escherichia coli, is governed by HflB.

  1995cited by this paper
• Processive degradation of proteins by the ATP-dependent Clp protease from Escherichia coli. Requirement for the multiple array of active sites in ClpP but not ATP hydrolysis.

  1994cited by this paper
• Involvement of FtsH in protein assembly into and through the membrane. I. Mutations that reduce retention efficiency of a cytoplasmic reporter.

  1994cited by this paper
• Isolation and characterization of point mutations in the Escherichia coli grpE heat shock gene

  1994cited by this paper
• The NH2-terminal 108 amino acids of the Escherichia coli DnaJ protein stimulate the ATPase activity of DnaK and are sufficient for lambda replication.

  1994cited by this paper
• The Escherichia coli hflA locus encodes a putative GTP-binding protein and two membrane proteins, one of which contains a protease-like domain.

  1993cited by this paper
• Cell growth and lambda phage development controlled by the same essential Escherichia coli gene, ftsH/hflB.

  1993influential reference
• Two complementary approaches to study peroxisome biogenesis in Saccharomyces cerevisiae: forward and reversed genetics.

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  1993influential reference
• Physical interaction between heat shock proteins DnaK, DnaJ, and GrpE and the bacterial heat shock transcription factor sigma 32.

  1992cited by this paper
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  1992influential reference
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  1992cited by this paper
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  1990influential reference
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  1989influential reference
• Cleavage of the cII protein of phage lambda by purified HflA protease: control of the switch between lysis and lysogeny.

  1988cited by this paper
• Structure and Function of the Transcription Activator Protein cII and Its Regulatory Signals

  1988cited by this paper
• Induction of the heat shock response of E. coli through stabilization of sigma 32 by the phage lambda cIII protein.

  1987cited by this paper
• Induction of the heat shock response of E. coli through stabilization of ¢r 32 by the phage cIII protein

  1987cited by this paper
• Translational regulatory signals within the coding region of the bacteriophage lambda cIII gene

  1986cited by this paper
• hflB, a new Escherichia coli locus regulating lysogeny and the level of bacteriophage lambda cII protein.

  1986influential reference
• Control of bacteriophage lambda CII activity by bacteriophage and host functions

  1984influential reference
• Purification and properties of a transcriptional activator. The cII protein of phage lambda.

  1982cited by this paper
• Regulation of the establishment of repressor synthesis in bacteriophage lambda.

  1982cited by this paper
• Control of phage lambda development by stability and synthesis of cII protein: role of the viral cIII and host hflA, himA and himD genes.

  1982influential reference
• Control of phage λ development by stability and synthesis of cll protein: Role of the viral clll and host hflA, himA and himD genes

  1982influential reference
• Silver staining of proteins in polyacrylamide gels.

  1981cited by this paper
• Electrophoretic transfer of proteins from polyacrylamide gels to nitrocellulose sheets: procedure and some applications.

  1979cited by this paper
• Isolation and characterization of a new temperature-sensitive cell division mutant of Escherichia coli K-12

  1975cited by this paper
• Fine structure mapping, complementation, and physiology of Escherichia coli hfl mutants.

  1974cited by this paper
• An analysis of the processes of infection and induction of E. coli mutant hfl-1 by bacteriophage lambda.

  1973cited by this paper

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