2001
DOI: 10.1002/1521-3757(20011217)113:24<4859::aid-ange4859>3.0.co;2-m
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Design and Synthesis of a Peptide That Binds Specific DNA Sequences through Simultaneous Interaction in the Major and in the Minor Groove

Abstract: Durch gleichzeitige Wechselwirkung mit der großen und der kleinen Furche der DNA kann eine bifunktionelle Modellverbindung an doppelsträngige DNA binden (siehe Bild); diese Modellverbindung wird durch Verknüpfung der basischen Region eines b‐ZIP‐Proteins (GCN4) an ein mit dem Antibiotikum Distamycin verwandtes Tripyrrol gebildet.

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Cited by 27 publications
(2 citation statements)
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References 25 publications
(11 reference statements)
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“…Moreover, we also did not observe stable DNA complexes with oligonucleotides mutated in the recognition site of the peptide (mAP1 hs ⋅A/T, TC G T ⋅AATTT). This result contrasts with previously studied covalent derivatives that do bind to these DNAs with substantial affinity 7c,d…”
Section: Methodscontrasting
confidence: 84%
“…Moreover, we also did not observe stable DNA complexes with oligonucleotides mutated in the recognition site of the peptide (mAP1 hs ⋅A/T, TC G T ⋅AATTT). This result contrasts with previously studied covalent derivatives that do bind to these DNAs with substantial affinity 7c,d…”
Section: Methodscontrasting
confidence: 84%
“…In this way, cell growth, differentiation, and development are regulated. The possibility to influence and control cell metabolism through modified synthetic transcription factors [1][2][3][4] offers fascinating prospects for molecular cell biology in the framework of biomimetics and synthetic biology. [5,6] The design and synthesis of biologically active artificial enzymes and new protein-based materials can be investigated by the combination of bioorganic bottom-up synthesis and single-molecule affinity nanotechnology.…”
mentioning
confidence: 90%