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Fig 1.

(A) Mechanism for MIC by SRB due to utilization of extracellular electrons from iron oxidation for intracellular sulfate reduction [10], and (B) schematic illustration of DET and MET.

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Fig 2.

D. vulgaris biofilms on (A) stainless steel 304 coupon surface and (B) carbon steel C1018 surface after 7 days of incubation with a much higher sessile cell density in ATCC 1249 culture medium.

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Table 1.

Composition of ATCC 1249 medium for SRB.

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Table 1 Expand

Fig 3.

Planktonic D. vulgaris cell counts after 7 days of incubation with and without electron mediators.

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Fig 4.

Specific weight loss after 7 days of incubation (error bars representing standard deviations).

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Fig 5.

Surface morphology (biofilm removed) under SEM after 7 days of incubation: (A) SRB culture without a mediator, (B) SRB culture with 10 ppm FAD, and (C) SRB culture with 10 ppm riboflavin.

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Fig 6.

Largest pits in terms of horizontal surface diameter after 7 days of incubation for: (A) SRB culture without a mediator, (B) SRB culture with 10 ppm riboflavin, and (C) SRB culture with 10 ppm FAD.

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Fig 7.

Largest pit depth on a coupon without a mediator after 7 days of incubation was 10.4 μm.

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Fig 8.

Largest pit depth on a coupon with 10 ppm riboflavin after 7 days of incubation was 22.2 μm.

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Fig 9.

Largest pit depth on a coupon with 10 ppm FAD after 7 days of incubation was 20.2 μm.

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