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Literature DB >> 7948688

Self-assembly of membrane junctions.

Abstract

We present a mechanism for the aggregation of mobile intermembrane junctions, such as the connexon dyad of gap junctions. The model demonstrates that intermembrane repulsion provides a powerful self-assembly pressure. If the membrane repulsion is strong enough to prevent membrane adhesion, then the self-assembly pressure is of effective infinite range.

Mesh：

Year: 1994 PMID： 7948688 PMCID： PMC1225418 DOI： 10.1016/S0006-3495(94)80535-1

Source DB: PubMed Journal: Biophys J ISSN： 0006-3495 Impact factor: 4.033

11 in total

Review 1. Photophysics and molecular electronic applications of the rhodopsins.

Authors: R R Birge
Journal: Annu Rev Phys Chem Date: 1990 Impact factor: 12.703

2. Mean-field and Monte Carlo simulation studies of the lateral distribution of proteins in membranes.

Authors: M M Sperotto; O G Mouritsen
Journal: Eur Biophys J Date: 1991 Impact factor: 1.733

3. Correlation analysis of gap junction lattice images.

Authors: G E Sosinsky; T S Baker; D L Caspar; D A Goodenough
Journal: Biophys J Date: 1990-11 Impact factor: 4.033

4. Diffraction diagnosis of protein folding in gap junction connexons.

Authors: T T Tibbitts; D L Caspar; W C Phillips; D A Goodenough
Journal: Biophys J Date: 1990-05 Impact factor: 4.033

5. Lateral interactions among membrane proteins. Implications for the organization of gap junctions.

Authors: J R Abney; J Braun; J C Owicki
Journal: Biophys J Date: 1987-09 Impact factor: 4.033

6. The minimum energy of bending as a possible explanation of the biconcave shape of the human red blood cell.

Authors: P B Canham
Journal: J Theor Biol Date: 1970-01 Impact factor: 2.691

7. Two configurations of a channel-forming membrane protein.

Authors: P N Unwin; P D Ennis
Journal: Nature Date: 1984 Feb 16-22 Impact factor: 49.962

8. Structure of the junction between communicating cells.

Authors: P N Unwin; G Zampighi
Journal: Nature Date: 1980-02-07 Impact factor: 49.962

9. Interaction between biotin lipids and streptavidin in monolayers: formation of oriented two-dimensional protein domains induced by surface recognition.

Authors: R Blankenburg; P Meller; H Ringsdorf; C Salesse
Journal: Biochemistry Date: 1989-10-03 Impact factor: 3.162

10. Two-dimensional crystallization technique for imaging macromolecules, with application to antigen--antibody--complement complexes.

Authors: E E Uzgiris; R D Kornberg
Journal: Nature Date: 1983-01-13 Impact factor: 49.962

21 in total

9. Adhesion-induced domain formation by interplay of long-range repulsion and short-range attraction force: a model membrane study.

Authors: A Albersdörfer; T Feder; E Sackmann
Journal: Biophys J Date: 1997-07 Impact factor: 4.033

10. Statistical Mechanics of an Elastically Pinned Membrane: Static Profile and Correlations.

Authors: Josip Augustin Janeš; Henning Stumpf; Daniel Schmidt; Udo Seifert; Ana-Sunčana Smith
Journal: Biophys J Date: 2018-12-08 Impact factor: 4.033

Self-assembly of membrane junctions.

Review 1. Photophysics and molecular electronic applications of the rhodopsins.

2. Mean-field and Monte Carlo simulation studies of the lateral distribution of proteins in membranes.

3. Correlation analysis of gap junction lattice images.

4. Diffraction diagnosis of protein folding in gap junction connexons.

5. Lateral interactions among membrane proteins. Implications for the organization of gap junctions.

6. The minimum energy of bending as a possible explanation of the biconcave shape of the human red blood cell.

7. Two configurations of a channel-forming membrane protein.

8. Structure of the junction between communicating cells.

9. Interaction between biotin lipids and streptavidin in monolayers: formation of oriented two-dimensional protein domains induced by surface recognition.

10. Two-dimensional crystallization technique for imaging macromolecules, with application to antigen--antibody--complement complexes.

1. Adhesion-induced receptor segregation and adhesion plaque formation: A model membrane study.

2. DNA-protein cooperative binding through variable-range elastic coupling.

3. Multiple stalk formation as a pathway of defect-induced membrane fusion.

4. Indirect interactions of membrane-adsorbed cylinders.

5. Entropy-driven aggregation of adhesion sites of supported membranes.

Review 6. Molecular organization of gap junction membrane channels.

7. Inclusions on fluid membranes anchored to elastic media.

8. Wetting and capillary condensation as means of protein organization in membranes.

9. Adhesion-induced domain formation by interplay of long-range repulsion and short-range attraction force: a model membrane study.

10. Statistical Mechanics of an Elastically Pinned Membrane: Static Profile and Correlations.