supplementary material 2

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Supplementary Material 2 Identification of significant canonical pathways by IPA. The top 5 pathways at each time point of hypoxia exposure (3, 6 and 12 h) for both hypoxia and NAP supplemented hypoxia (NAP + Hypoxia) are presented. The intensity of node colour represents up (red), down (green) or no regulation (no colour).

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Page 1: Supplementary Material 2

Supplementary Material 2

Identification of significant canonical pathways by IPA. The top 5 pathways at

each time point of hypoxia exposure (3, 6 and 12 h) for both hypoxia and NAP

supplemented hypoxia (NAP + Hypoxia) are presented. The intensity of node

colour represents up (red), down (green) or no regulation (no colour).

Page 2: Supplementary Material 2

S.No. 3h hypoxia S.No. 3h hypoxia + NAP

1 Mitochondrial dysfunction 1 Glycolysis I

2 RhoGDI signaling 2 NRF2-mediated oxidative stress response

3 NADH Repair 3 NADH Repair

4 Glycerol-3-phosphate Shuttle 4 Superoxide Radicals Degradation

5 Superoxide Radicals Degradation 5 nNOS signaling in neurons

Table 1: IPA identified significant canonical pathways altered during 3 h hypoxia exposure and NAP supplementation in rat brain hippocampus. Pathways are arranged in order to their P-value.

Page 3: Supplementary Material 2

Figure 1: Ingenuity Pathway Analysis (IPA) of hypoxia (3h) regulated canonical pathway “Mitochondrial dysfunction” in brain hippocampus exposed to hypoxia. Differentially regulated proteins are shown in red and green, depicting up- and down-regulation after hypoxic exposure.

Page 4: Supplementary Material 2

Figure 2: Ingenuity Pathway Analysis (IPA) of hypoxia (3h) regulated canonical pathway “RhoGDI signaling” in brain hippocampus exposed to hypoxia. Differentially regulated proteins are shown in red and green, depicting up- and down-regulation after hypoxic exposure.

Page 5: Supplementary Material 2

Figure 3: Ingenuity Pathway Analysis (IPA) of hypoxia (3h) regulated canonical pathway “NADH Repair” in brain hippocampus exposed to hypoxia. Differentially regulated proteins are shown in red and green, depicting up- and down-regulation after hypoxic exposure.

Page 6: Supplementary Material 2

Figure 4: Ingenuity Pathway Analysis (IPA) of hypoxia (3h) regulated canonical pathway “Glycerol-3-phosphate shuttle” in brain hippocampus exposed to hypoxia. Differentially regulated proteins are shown in red and green, depicting up- and down-regulation after hypoxic exposure.

Page 7: Supplementary Material 2

Figure 5: Ingenuity Pathway Analysis (IPA) of hypoxia (3h) regulated canonical pathway “Superoxide Radicals Degradation” in brain hippocampus exposed to hypoxia. Differentially regulated proteins are shown in red and green, depicting up- and down-regulation after hypoxic exposure.

Page 8: Supplementary Material 2

Figure 6: Ingenuity Pathway Analysis (IPA) of hypoxia (3h) regulated canonical pathway “Glycolysis I” in NAP supplemented brain hippocampus exposed to hypoxia (NAP + Hypoxia). Differentially regulated proteins are shown in red and green, depicting up- and down-regulation after hypoxic exposure.

Page 9: Supplementary Material 2

Figure 7: Ingenuity Pathway Analysis (IPA) of hypoxia (3h with NAP supplementation) regulated canonical pathway “NRF2-mediated oxidative stress response” in brain hippocampus exposed to hypoxia. Differentially regulated proteins are shown in red and green, depicting up- and down-regulation after hypoxic exposure.

Page 10: Supplementary Material 2

Figure 8: Ingenuity Pathway Analysis (IPA) of hypoxia (3h with NAP supplementation) regulated canonical pathway “NADH Repair” in brain hippocampus exposed to hypoxia. Differentially regulated proteins are shown in red and green, depicting up- and down-regulation after hypoxic exposure.

Page 11: Supplementary Material 2

Figure 9: Ingenuity Pathway Analysis (IPA) of hypoxia (3h with NAP supplementation) regulated canonical pathway “Superoxide Radicals Degradation” in brain hippocampus exposed to hypoxia. Differentially regulated proteins are shown in red and green, depicting up- and down-regulation after hypoxic exposure.

Page 12: Supplementary Material 2

Figure 10: Ingenuity Pathway Analysis (IPA) of hypoxia (3h with NAP supplementation) regulated canonical pathway “nNOS signaling in neurons” in brain hippocampus exposed to hypoxia. Differentially regulated proteins are shown in red and green, depicting up- and down-regulation after hypoxic exposure.

Page 13: Supplementary Material 2

Table 2: IPA identified significant canonical pathways altered during 6 h hypoxia exposure and NAP supplementation in rat brain hippocampus. Pathways are arranged in order to their p value

S.No. 6h hypoxia S.No. 6h hypoxia + NAP

1 Mitochondrial dysfunction 1 NRF2-mediated oxidative stress response

2 NRF2-mediated oxidative stress response

2 Glutamine biosynthesis

3 Glycolysis I 3 NADH Repair

4 NADH Repair 4 Superoxide Radicals Degradation

5 Superoxide Radicals Degradation 5 Acyl-CoA hydrolysis

Page 14: Supplementary Material 2

Figure 11: Ingenuity Pathway Analysis (IPA) of hypoxia (6h) regulated canonical pathway “Mitochondrial dysfunction” in brain hippocampus exposed to hypoxia. Differentially regulated proteins are shown in red and green, depicting up- and down-regulation after hypoxic exposure.

Page 15: Supplementary Material 2

Figure 12: Ingenuity Pathway Analysis (IPA) Analysis of hypoxia (6h) regulated canonical pathway “NRF2-mediated oxidative stress response” in brain hippocampus exposed to hypoxia. Differentially regulated proteins are shown in red and green, depicting up- and down-regulation after hypoxic exposure.

Page 16: Supplementary Material 2

Figure 13: Ingenuity Pathway Analysis (IPA) Analysis of hypoxia (6h) regulated canonical pathway “Glycolysis I” in brain hippocampus exposed to hypoxia. Differentially regulated proteins are shown in red and green, depicting up- and down-regulation after hypoxic exposure.

Page 17: Supplementary Material 2

Figure 14: Ingenuity Pathway Analysis (IPA) of hypoxia (6h) regulated canonical pathway “NADH Repair” in brain hippocampus exposed to hypoxia. Differentially regulated proteins are shown in red and green, depicting up- and down-regulation after hypoxic exposure.

Page 18: Supplementary Material 2

Figure 15: Ingenuity Pathway Analysis (IPA) of hypoxia (6h) regulated canonical pathway “Superoxide Radicals Degradation” in brain hippocampus exposed to hypoxia. Differentially regulated proteins are shown in red and green, depicting up- and down-regulation after hypoxic exposure.

Page 19: Supplementary Material 2

Figure 16: Ingenuity Pathway Analysis (IPA) of hypoxia (6h with NAP supplementation) regulated canonical pathway “NRF2-mediated oxidative stress response” in brain hippocampus exposed to hypoxia. Differentially regulated proteins are shown in red and green, depicting up- and down-regulation after hypoxic exposure.

Page 20: Supplementary Material 2

Figure 17: Ingenuity Pathway Analysis (IPA) of hypoxia (6h with NAP supplementation) regulated canonical pathway “Glutathione-mediated detoxification” in brain hippocampus exposed to hypoxia. Differentially regulated proteins are shown in red and green, depicting up- and down-regulation after hypoxic exposure.

Page 21: Supplementary Material 2

Figure 18: Ingenuity Pathway Analysis (IPA) of hypoxia (6h with NAP supplementation) regulated canonical pathway “NADH Repair” in brain hippocampus exposed to hypoxia. Differentially regulated proteins are shown in red and green, depicting up- and down-regulation after hypoxic exposure.

Page 22: Supplementary Material 2

Figure 19: Ingenuity Pathway Analysis (IPA) of hypoxia (6h with NAP supplementation) regulated canonical pathway “Superoxide Radicals Degradation” in brain hippocampus exposed to hypoxia. Differentially regulated proteins are shown in red and green, depicting up- and down-regulation after hypoxic exposure.

Page 23: Supplementary Material 2

Figure 20: Ingenuity Pathway Analysis (IPA) of hypoxia (6h with NAP supplementation) regulated canonical pathway “Acyl-CoA hydrolysis” in brain hippocampus exposed to hypoxia. Differentially regulated proteins are shown in red and green, depicting up- and down-regulation after hypoxic exposure.

Page 24: Supplementary Material 2

Table 3: IPA identified significant canonical pathways altered during 12 h hypoxia exposure and NAP supplementation in rat brain hippocampus. Pathways are arranged in order to their P-value.

S.No. 12h hypoxia S.No. 12h hypoxia + NAP

1 Mitochondrial dysfunction 1 NRF2-mediated oxidative stress response

2 Gluconeogenesis I 2 Superoxide Radicals Degradation

3 Glycolysis I 3 Signaling by Rho family GTPases

4 Glutathione-mediated detoxification 4 AMPK signaling

5 Glycerol-3-phosphate Shuttle 5 Glutathione-mediated detoxification

Page 25: Supplementary Material 2

Figure 21: Ingenuity Pathway Analysis (IPA) of hypoxia (12h) regulated canonical pathway “Mitochondrial dysfunction” in brain hippocampus exposed to hypoxia. Differentially regulated proteins are shown in red and green, depicting up- and down-regulation after hypoxic exposure.

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Figure 22: Ingenuity Pathway Analysis (IPA) of hypoxia (12h) regulated canonical pathway “Gluconeogenesis I” in brain hippocampus exposed to hypoxia. Differentially regulated proteins are shown in red and green, depicting up- and down-regulation after hypoxic exposure.

Page 27: Supplementary Material 2

Figure 23: Ingenuity Pathway Analysis (IPA) of hypoxia (12h) regulated canonical pathway “Glycolysis I” in brain hippocampus exposed to hypoxia. Differentially regulated proteins are shown in red and green, depicting up- and down-regulation after hypoxic exposure.

Page 28: Supplementary Material 2

Figure 24: Ingenuity Pathway Analysis (IPA) of hypoxia (12h) regulated canonical pathway “Glutathione-mediated detoxification” in brain hippocampus exposed to hypoxia. Differentially regulated proteins are shown in red and green, depicting up- and down-regulation after hypoxic exposure.

Page 29: Supplementary Material 2

Figure 25: Ingenuity Pathway Analysis (IPA) of hypoxia (12h) regulated canonical pathway “Glycerol-3-phosphate Shuttle” in brain hippocampus exposed to hypoxia. Differentially regulated proteins are shown in red and green, depicting up- and down-regulation after hypoxic exposure.

Page 30: Supplementary Material 2

Figure 26: Ingenuity Pathway Analysis (IPA) of hypoxia (12h with NAP supplementation) regulated canonical pathway “NRF2-mediated oxidative stress response” in brain hippocampus exposed to hypoxia. Differentially regulated proteins are shown in red and green, depicting up- and down-regulation after hypoxic exposure.

Page 31: Supplementary Material 2

Figure 27: Ingenuity Pathway Analysis (IPA) of hypoxia (12h with NAP supplementation) regulated canonical pathway “Superoxide Radicals Degradation” in brain hippocampus exposed to hypoxia. Differentially regulated proteins are shown in red and green, depicting up- and down-regulation after hypoxic exposure.

Page 32: Supplementary Material 2

Figure 28: Ingenuity Pathway Analysis (IPA) of hypoxia (12h with NAP supplementation) regulated canonical pathway “Signaling by Rho family GTPases” in brain hippocampus exposed to hypoxia. Differentially regulated proteins are shown in red and green, depicting up- and down-regulation after hypoxic exposure.

Page 33: Supplementary Material 2

Figure 29: Ingenuity Pathway Analysis (IPA) of hypoxia (12h with NAP supplementation) regulated canonical pathway “AMPK signaling” in brain hippocampus exposed to hypoxia. Differentially regulated proteins are shown in red and green, depicting up- and down-regulation after hypoxic exposure.

Page 34: Supplementary Material 2

Figure 30: Ingenuity Pathway Analysis (IPA) of hypoxia (12h with NAP supplementation) regulated canonical pathway “Glutathione-mediated detoxification” in brain hippocampus exposed to hypoxia. Differentially regulated proteins are shown in red and green, depicting up- and down-regulation after hypoxic exposure.