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Fig 1.

Structures of the compounds used in the study.

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Table 1.

Activity of compounds against Staphylococcal planktonic cells (including clinical isolates).

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Fig 2.

Propensity to induce resistance development in Gram-positive bacteria.

Fold of increase in MICs of Norfloxacin and NCK-10 against S. aureus.

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Fig 3.

Antibacterial activity of NCK-10 at different physiological conditions.

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Fig 4.

Kinetics of killing of S. aureus persister cells by NCK-10 at 5 × MIC.

(*) indicate that no colony was observed.

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Fig 5.

Mechanism of action against persister cells.

(A) Depolarization of the membranes of S. aureus persister cells. (B) Permeabilization of S. aureus persister cells. The concentration of NCK-10 used is 5 × MIC.

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Fig 6.

Ability of NCK-10 to disrupt methicillin resistant S. aureus biofilms.

(A) Reduction in viable bacterial count with respect to control at different concentrations of NCK-10. (B) Reduction in biofilm mass by crystal violet staining (Concentration of NCK-10 was 10×MIC). (C) Confocal of image of untreated biofilm and after treatment with NCK-10 (Concentration of NCK-10 was 10×MIC).

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Fig 7.

In-vivo models of infection.

(A) Bacterial titer in MRSA skin infection model (with planktonic cells). (B) Scanning electron micrographs of the wound tissue surface 24 h post inoculation. (C) Bacterial titer in MRSA skin infection model (Biofilm).

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Fig 8.

Skin histopathology studies.

(A) Untreated (B) Treated with Fusidic acid and (C) Treated with NCK-10.

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