Strategies for functionalizing diverse tetrahedral framework nucleic acids (tFNAs) have been
extensively explored since the first successful fabrication of tFNA by Turberfield. One‐pot …

Nucleic acids (DNA and RNA) dynamically fold and unfold to exert their functions in cells.
These folding and unfolding behaviours are also the basis for various technical applications …

DNA sequences rich in cytosine have the propensity, under acidic pH, to fold into four‐
stranded intercalated DNA structures called i‐motifs. Recent studies have provided …

I-Motifs (iM) are non-canonical DNA structures potentially forming in the accessible, single-
stranded, cytosine-rich genomic regions with regulatory roles. Chromatin, protein …

The formation of intercalated motifs (iMs)—secondary DNA structures based on
hemiprotonated C. C+ pairs in suitable cytosine-rich DNA sequences, is reflected by typical …

Cytosine-rich DNA regions can form four-stranded structures based on hemi-protonated C.
C+ pairs, called i-motifs (iMs). Using CD, UV absorption, NMR spectroscopy, and DSC …

The i‐motif DNA, also known as i‐DNA, is a non‐canonical DNA secondary structure formed
by cytosine‐rich sequences, consisting of two intercalated parallel‐stranded duplexes held …

I-motif or C4 is a four-stranded DNA structure with a protonated cytosine: cytosine base pair
(C+: C) found in cytosine-rich sequences. We have found that oligodeoxynucleotides …

The cytosine (C)-rich sequences that can fold into tetraplex structures known as i-motif are
prevalent in genomic DNA. Recent studies of i-motif–forming sequences have shown …

i-Motifs are four-stranded DNA structures formed from sequences rich in cytosine, held
together by hemi-protonated cytosine-cytosine base pairs. These structures have been …