Pt‐GG adducts in the active sites of Dpo4 and ypolη.

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Pt‐GG adducts in the active sites of Dpo4 and ypolη. Pt‐GG adducts in the active sites of Dpo4 and ypolη. All panels are close‐up views of the enzyme active sites where the finger domain is in cyan. The platinum (Pt) atom is shown as a cyan ball. The DNA is shown as stick‐balls, with the template strand in orange and the primer strand in yellow. The sequences of the template/primer DNA in the complexes are shown on the tops of panels (A–D), cross‐linked G bases are in red. The arrows indicate the incoming dNTP positions. (A) GG1, where dCTP (pink) is paired opposite the 3′G of Pt‐GG (dark pink). (B, C) GG2, two alternate conformations of GG2 (translucent pink, GG2a in (B), GG2b in (C)), where dCTP (pink) is paired opposite the 5′G of Pt‐GG. (D) GG3, where dATP is paired with the T base that is 5′ to the Pt‐GG lesion. (E) Superposition of the GG1 (semi‐transparent, left side) and GG2 (solid, right) structures of Dpo4, where DNA is shown as grey sticks with the 5′G of Pt‐GG is in red with arrows, and the 3′G is in blue. The Pt‐GG adduct is translocated in different positions and shows different conformations in the two structures. (F) Superposition of the same reaction stage complexes of ypolη with the same colour scheme as (E). In ypolη (F), the Pt‐GG adduct remains in a similar position with the 5′G bases (red bases with an arrow) superimposed well in both reaction stages, no translocation of Pt‐GG occurs. Jimson HY Wong et al. EMBO J. 2010;29:2059-2069 © as stated in the article, figure or figure legend