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Table 1. Result for oil-spreading assay, indicated Table 2. Drop collapse used for biosurfactant
oil displacement produced by isolates. activity. — Table 1 Result for oil-spreading assay, indicated Table 2. Drop collapse used for biosurfactant oil displacement produced by isolates. activity.

Related Figures (9)

Table 1. Result for oil-spreading assay, indicated Table 2. Drop collapse used for biosurfactant
oil displacement produced by isolates. activity. — Table 1. Result for oil-spreading assay, indicated Table 2. Drop collapse used for biosurfactant oil displacement produced by isolates. activity.

Fig. 3. Hemolytic activity of bacterial isolates showed lysis of red blood cells.

Table 3. Results for hemolytic activity.
Table 4. Results for CTAB assay indicated
zone formation (mm). — Table 3. Results for hemolytic activity. Table 4. Results for CTAB assay indicated zone formation (mm).

Table 3. Results for hemolytic activity.
Table 4. Results for CTAB assay indicated
zone formation (mm). — Table 3. Results for hemolytic activity. Table 4. Results for CTAB assay indicated zone formation (mm).

Table 3. Results for hemolytic activity.
Table 4. Results for CTAB assay indicated
zone formation (mm). — Table 3. Results for hemolytic activity. Table 4. Results for CTAB assay indicated zone formation (mm).

Table 5. Bath assay of isolates against
xylene as hydrocarbon.
Table 6. Emulsification index (E24) against generator
oil and motor oil.
Fig. 4. In CTAB assay, dark blue halo was formed around bacterial growth indicated the biosurfactant activity — Table 5. Bath assay of isolates against xylene as hydrocarbon. Table 6. Emulsification index (E24) against generator oil and motor oil. Fig. 4. In CTAB assay, dark blue halo was formed around bacterial growth indicated the biosurfactant activity

Table 8. To check the effect of sodium chloride
(NaCl) on positive protease producing isolates.
Table 7. Screening of selected protease producing
bacteria on skim milk agar plates.
Fig. 5. Image of the emulsification assay showed emulsion —_ Fig. 6. Protease production by producing clear zone on skim
formed against generator oil. milk agar plates. — Table 8. To check the effect of sodium chloride (NaCl) on positive protease producing isolates. Table 7. Screening of selected protease producing bacteria on skim milk agar plates. Fig. 5. Image of the emulsification assay showed emulsion —_ Fig. 6. Protease production by producing clear zone on skim formed against generator oil. milk agar plates.

Table 8. To check the effect of sodium chloride
(NaCl) on positive protease producing isolates.
Table 7. Screening of selected protease producing
bacteria on skim milk agar plates.
Fig. 5. Image of the emulsification assay showed emulsion —_ Fig. 6. Protease production by producing clear zone on skim
formed against generator oil. milk agar plates. — Table 8. To check the effect of sodium chloride (NaCl) on positive protease producing isolates. Table 7. Screening of selected protease producing bacteria on skim milk agar plates. Fig. 5. Image of the emulsification assay showed emulsion —_ Fig. 6. Protease production by producing clear zone on skim formed against generator oil. milk agar plates.

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