Charge Transfer Between [4Fe4S] Proteins and DNA Is Unidirectional. Implications for Biomolecular Signaling

Chem - United States
doi 10.1016/j.chempr.2018.09.026
Full Text
Abstract

Available in full text

Date
Authors
Publisher

Elsevier BV

Related search

Charge Transfer Between [4Fe4S] Proteins and DNA Is Unidirectional: Implications for Biomolecular Signaling

Chem
BiochemistryEnvironmental ChemistryMaterials ChemistryChemistryChemical Engineering
2019English

Theoretical Chemistry Answers Bimolecular Signaling Debate in [4Fe4S] Proteins

Chem
BiochemistryEnvironmental ChemistryMaterials ChemistryChemistryChemical Engineering
2019English

Redox Signaling Between DNA Repair Proteins for Efficient Lesion Detection

Proceedings of the National Academy of Sciences of the United States of America
Multidisciplinary
2009English

The [4Fe4S] Cluster of Human DNA Primase Functions as a Redox Switch Using DNA Charge Transport

Science
MultidisciplinaryPhilosophy of ScienceHistory
2017English

Charge Transfer Between Neutral Atoms and Highly Ionized Species: Implications for [ITAL]ISO[/ITAL] Observations

Astrophysical Journal
AstrophysicsAstronomyPlanetary ScienceSpace
1997English

Characterizing the Biomolecular Interactions Between Insulin and G-Quadruplex DNA

Biophysical Journal
Biophysics
2013English

Charge Group Partitioning in Biomolecular Simulation

Lecture Notes in Computer Science
Computer ScienceTheoretical Computer Science
2012English

Implications of Charge Transfer in Molecular Organic Crystals

Acta Crystallographica Section A Foundations of Crystallography
2000English

Charge Transfer Between Positive Alkali Ions and Atoms

Journal of Chemical Physics
MedicineTheoretical ChemistryAstronomyPhysicsPhysical
1968English

Amanote Research

Note-taking for researchers

Follow Amanote

© 2024 Amaplex Software S.P.R.L. All rights reserved.

Privacy PolicyRefund Policy