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Chemical reconstitution of a chloride pump inactivated by a single point mutation.

Published in: The EMBO Journal

Date of publication: April 1, 1995

Language: English

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Cites articles 40

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Authors

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Anion-induced wavelength regulation of absorption maxima of Schiff bases of retinal
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Isolation of the cell membrane of Halobacterium halobium and its fractionation into red and purple membrane
June 1, 1977

Resonance Raman studies of the purple membrane
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Resonance Raman evidence for an all-trans to 13-cis isomerization in the proton-pumping cycle of bacteriorhodopsin
January 1, 1983

Isolation and properties of the native chromoprotein halorhodopsin
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Evidence for a halide-binding site in halorhodopsin
November 1, 1984

A polychromatic flash photolysis apparatus (PFPA)
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The photocycle of the chloride pump halorhodopsin. II: Quantum yields and a kinetic model
January 1, 1986

Flash spectroscopic studies of the kinetics of the halorhodopsin photocycle
February 1, 1986

Effects of anion binding on the deprotonation reactions of halorhodopsin
December 1, 1987

The photochemical cycle of halorhodopsin: absolute spectra of intermediates obtained by flash photolysis and fast difference spectra measurements
January 1, 1987

The halo-opsin gene. II. Sequence, primary structure of halorhodopsin and comparison with bacteriorhodopsin
October 1, 1987

Structure of the retinal chromophore in the hRL intermediate of halorhodopsin from resonance raman spectroscopy
June 1, 1988

Aspartic acid substitutions affect proton translocation by bacteriorhodopsin
March 1, 1989

Effects of various anions on the Raman spectrum of halorhodopsin
November 1, 1989

A defective proton pump, point-mutated bacteriorhodopsin Asp96----Asn is fully reactivated by azide

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June 1, 1989

Aspartic acids 96 and 85 play a central role in the function of bacteriorhodopsin as a proton pump

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Role of aspartate-96 in proton translocation by bacteriorhodopsin.
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Two pumps, one principle: light-driven ion transport in halobacteria
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Transient spectroscopy of bacterial rhodopsins with an optical multichannel analyzer. 2. Effects of anions on the halorhodopsin photocycle
April 1, 1989

Nuclear magnetic resonance study of the Schiff base in bacteriorhodopsin: counterion effects on the 15N shift anisotropy
April 1, 1990

Halorhodopsin, a light-driven electrogenic chloride-transport system
June 1, 1990

Anion binding to the chloride pump, halorhodopsin, and its implications for the transport mechanism
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The retinylidene Schiff base counterion in bacteriorhodopsin
April 1, 1992

Sensory rhodopsin I: receptor activation and signal relay
April 1, 1992

A unifying concept for ion translocation by retinal proteins
November 1, 1992

Proton uptake mechanism of bacteriorhodopsin as determined by time-resolved stroboscopic-FTIR-spectroscopy
December 1, 1992

Resonance Raman study of halorhodopsin photocycle kinetics, chromophore structure, and chloride-pumping mechanism
June 1, 1992

Asp85 is the only internal aspartic acid that gets protonated in the M intermediate and the purple-to-blue transition of bacteriorhodopsin. A solid-state 13C CP-MAS NMR investigation,Asp85 is the only internal aspartic acid that gets protonated in the M intermediate and the purple&#x2010;to&#x2010;blue transition of bacteriorhodopsin A solid&#x2010;state13C CP&#x2010;MAS NMR investigation
May 1, 1993

Bacterioopsin, haloopsin, and sensory opsin I of the halobacterial isolate Halobacterium sp. strain SG1: three new members of a growing family
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Light-driven proton or chloride pumping by halorhodopsin

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