Figure 5A-H. Base pairing patterns for the sRNA-mRNA pairs identified by CLASH were calculated using IntaRNA software (Busch et al. 2008) and are shown (left) for frdA-RyhB (A). Point mutations and predicted sRNA seed sequences (blue shading) are indicated. (Histograms, right) Median fluorescence intensity (MFI) was assessed by FACS for mRNA-sfGFP fusions with compensatory base changes. In each case, introduction of a point mutation into an sRNA or mRNA construct (M1) is expected to reduce sRNA repression, which should be restored by combining complementary point mutants (last bar, M1-M1). A two-tailed t-test was used to calculate significance from biological triplicate cultures. *p<0.05. A-H. Base pairing patterns for the sRNA-mRNA pairs identified by CLASH were calculated using IntaRNA software (Busch et al. 2008) and are shown (left) for zapB-RyhB (B). Point mutations and predicted sRNA seed sequences (blue shading) are indicated. (Histograms, right) Median fluorescence intensity (MFI) was assessed by FACS for mRNA-sfGFP fusions with compensatory base changes. In each case, introduction of a point mutation into an sRNA or mRNA construct (M1) is expected to reduce sRNA repression, which should be restored by combining complementary point mutants (last bar, M1-M1). A two-tailed t-test was used to calculate significance from biological triplicate cultures. *p<0.05. A-H. Base pairing patterns for the sRNA-mRNA pairs identified by CLASH were calculated using IntaRNA software (Busch et al. 2008) and are shown (left) for hdeA-RyhB (C). Point mutations and predicted sRNA seed sequences (blue shading) are indicated. (Histograms, right) Median fluorescence intensity (MFI) was assessed by FACS for mRNA-sfGFP fusions with compensatory base changes. In each case, introduction of a point mutation into an sRNA or mRNA construct (M1) is expected to reduce sRNA repression, which should be restored by combining complementary point mutants (last bar, M1-M1). A two-tailed t-test was used to calculate significance from biological triplicate cultures. *p<0.05. A-H. Base pairing patterns for the sRNA-mRNA pairs identified by CLASH were calculated using IntaRNA software (Busch et al. 2008) and are shown (left) hdeA-GadY (D). Point mutations and predicted sRNA seed sequences (blue shading) are indicated. (Histograms, right) Median fluorescence intensity (MFI) was assessed by FACS for mRNA-sfGFP fusions with compensatory base changes. In each case, introduction of a point mutation into an sRNA or mRNA construct (M1) is expected to reduce sRNA repression, which should be restored by combining complementary point mutants (last bar, M1-M1). A two-tailed t-test was used to calculate significance from biological triplicate cultures. *p<0.05. A-H. Base pairing patterns for the sRNA-mRNA pairs identified by CLASH were calculated using IntaRNA software (Busch et al. 2008) and are shown (left) for rssA-RyeB (E). Point mutations and predicted sRNA seed sequences (blue shading) are indicated. (Histograms, right) Median fluorescence intensity (MFI) was assessed by FACS for mRNA-sfGFP fusions with compensatory base changes. In each case, introduction of a point mutation into an sRNA or mRNA construct (M1) is expected to reduce sRNA repression, which should be restored by combining complementary point mutants (last bar, M1-M1). A two-tailed t-test was used to calculate significance from biological triplicate cultures. *p<0.05. A-H. Base pairing patterns for the sRNA-mRNA pairs identified by CLASH were calculated using IntaRNA software (Busch et al. 2008) and are shown (left) for chuA-Esr41 (F). Point mutations and predicted sRNA seed sequences (blue shading) are indicated. (Histograms, right) Median fluorescence intensity (MFI) was assessed by FACS for mRNA-sfGFP fusions with compensatory base changes. In each case, introduction of a point mutation into an sRNA or mRNA construct (M1) is expected to reduce sRNA repression, which should be restored by combining complementary point mutants (last bar, M1-M1). A two-tailed t-test was used to calculate significance from biological triplicate cultures. *p<0.05. A-H. Base pairing patterns for the sRNA-mRNA pairs identified by CLASH were calculated using IntaRNA software (Busch et al. 2008) and are shown (left) for cirA-Esr41 (G). Point mutations and predicted sRNA seed sequences (blue shading) are indicated. (Histograms, right) Median fluorescence intensity (MFI) was assessed by FACS for mRNA-sfGFP fusions with compensatory base changes. In each case, introduction of a point mutation into an sRNA or mRNA construct (M1) is expected to reduce sRNA repression, which should be restored by combining complementary point mutants (last bar, M1-M1). A two-tailed t-test was used to calculate significance from biological triplicate cultures. *p<0.05. A-H. Base pairing patterns for the sRNA-mRNA pairs identified by CLASH were calculated using IntaRNA software (Busch et al. 2008) and are shown (left) for bfr-Esr41 (H). Point mutations and predicted sRNA seed sequences (blue shading) are indicated. (Histograms, right) Median fluorescence intensity (MFI) was assessed by FACS for mRNA-sfGFP fusions with compensatory base changes. In each case, introduction of a point mutation into an sRNA or mRNA construct (M1) is expected to reduce sRNA repression, which should be restored by combining complementary point mutants (last bar, M1-M1). A two-tailed t-test was used to calculate significance from biological triplicate cultures. *p<0.05.