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Biological contexts for DNA charge transport chemistry
Edward J. Merino
,
Amie K. Boal
, Jacqueline K. Barton
Biochemistry & Molecular Biology
Chemistry
Research output
:
Contribution to journal
›
Review article
›
peer-review
114
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Scopus citations
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Dive into the research topics of 'Biological contexts for DNA charge transport chemistry'. Together they form a unique fingerprint.
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Medicine and Dentistry
In Vitro
100%
Mitochondrion
100%
Transcription Factors
100%
Thiol
100%
Protein P53
100%
Mitochondrial DNA
100%
DNA Damage
100%
Oxidative Stress
100%
Disulfide
100%
DNA Repair
100%
Guanine
100%
DNA Binding Protein
100%
DNA Repair Protein
100%
Keyphrases
Biological Context
100%
Charge Transport
100%
DNA Charge Transport
100%
Long Distance
40%
Binding Protein
40%
Mitochondria
20%
Biologically Relevant
20%
Oxidative Stress
20%
Fe-S Cluster
20%
DNA Repair
20%
Mitochondrial DNA
20%
HeLa Cells
20%
Double Helical
20%
DNA Damage
20%
DNA-binding Proteins
20%
Regulatory Elements
20%
DNA Repair Enzymes
20%
Glycoside Hydrolase
20%
Biological Role
20%
Transport Reaction
20%
Long-distance Signaling
20%
Guanine Radicals
20%
Efficient Charge Transport
20%
Transcription Factor p53
20%
Biochemistry, Genetics and Molecular Biology
Mitochondrion
100%
Transcription Factors
50%
Disulfide
50%
Oxidative Stress
50%
Thiol
50%
Guanine
50%
P53
50%
Nucleosome
50%
DNA Repair
50%
DNA Damage
50%
DNA-binding Protein
50%
Regulatory Element
50%
Glycosylase
50%
DNA Repair Protein
50%
Immunology and Microbiology
DNA Repair
100%
Mitochondrion
100%
Transcription Factors
50%
Oxidative Stress
50%
P53
50%
DNA Binding Protein
50%
DNA Damage
50%
Nucleosome
50%