Supplementary Material 3 Gene ontology annotation of cellular component, molecular function and biological processes for both hypoxia and NAP supplemented.

Slides:



Advertisements
Similar presentations
Chapter 14 - Electron Transport and Oxidative Phosphorylation The cheetah, whose capacity for aerobic metabolism makes it one of the fastest animals.
Advertisements

CELL BIOLOGY Mitochondria The organelle that releases energy in the cell. (The powerhouse of the cell) Only found in ANIMAL cells. Mitochondria.
ATP (adenosine triphosphate) is a nucleoside triphosphate used in cells as a coenzyme. It is often called the "molecular unit of currency" of intracellular.
GO-Slim term : ProcessCluster frequency total proteinsCluster frequencyGenes annotated to the term regulation of biological process 321 out of 1261 genes,
BIOLOGICAL ROLE OF OXYGEN
Text 1 Biochemistry of Glucose Damage in Diabetes.
Cellular Pathways that Harvest Chemical Energy
Oxidative Phosphorylation It is the process by which electrons are carried from reduced cofactors (NADH + / QH 2 ) are finalled in stepwise manner to oxygen.
Biology 107 Cellular Respiration October 3, 2003.
Biology 107 Cellular Respiration September 30, 2005.
Chapter 14 - Electron Transport and Oxidative Phosphorylation
Walt Balcavage 6/26/20151 Introduction: Review of e - transport and H + pumps. Structure and function of ATP synthase. Quantitation of Chemiosmotic Potential.
General Microbiology (MICR300)
Section 9-1 Cellular Respiration In the Mitochondria.
Lesson 7: Harvesting of Energy “Cellular Respiration”
Cellular Respiration 7.3 Aerobic Respiration.
1 II. Enzymes Proteins Organic catalysts that speed up the rate of a reaction, but are not used up Lower energy of activation Are specific in action, i.e.,
WINDSOR SOM MITOCHONDRIA CELL BIOLOGY Dr. PURNA.
Ch 5 Microbial Metabolism
The Respiratory Chain & Oxidative Phosphorylation.
Chapter 19 Oxidative Phosphorylation and Photophosphorylation.
Chapter 18 Oxidative phosphorylation  the process in which ATP is formed as a result of the transfer of electrons from NADH or FADH 2 to O 2 by a series.
Weighted models for insulin Detected by scanone Detected by Ping’s multiQTL model tissue# transcripts Islet1984 Adipose605 Liver485 Gastroc404 # transcripts.
The Krebs Cycle & Electron Transport
9-2 The Krebs Cycle and Electron Transport
AP Biology Ch. 9 – Cellular Respiration. Catabolic pathway Fermentation Aerobic respiration Anaerobic respiration Cellular respiration Redox reaction.
Oxidative Phosphorylation and Electron Transport Chain(ETC)
WALT Hydrogen carried by reduced co- enzyme’s enter the Electron Transport chain Synthesis of ATP is associated with the electron transport chain The Electron.
Dr. M. Azhar Chishti Dept. Medical Biochemistry. Objective 1. To correlate between the oxidation of food molecules by cellular respiration and the mitochondrial.
M. Saadatian Cellular respiration 1.
Chemiosmotic mechanism of oxidative phosphorylation Active transport carrier proteins set up gradients which are then used to synthesize ATP ATP synthase.
From Functional Genomics to Physiological Model: Using the Gene Ontology Fiona McCarthy, Shane Burgess, Susan Bridges The AgBase Databases, Institute of.
© 2004 Wadsworth – Thomson Learning Chapter 5 Metabolism of Microorganisms.
Cellular Respiration: Harvesting Chemical Energy Chapter 9 Biology – Campbell Reece.
Pathways That Harvest Chemical Energy
Cellular Respiration Part 2 Producing ATP by Oxidative Phosphorylation Energy from Macromolecules.
Cellular Respiration Ch. 9. Overview Respiration has three metabolic stages: Glycolysis Krebs Cycle Electron Transport Phosphorylation Glycolysis and.
Cellular Respiration.  During photosynthesis the Sun’s energy is captured & stored in the form of carbohydrates & other organic molecules.
Electron Transport Chain (Respiratory Chain) Dr. Sumbul Fatma 1 Lecture Respiratory Block.
1 1 12/1/2015 Electron Transport Chain Filename: ETChain.ppt.
Topic #2: Molecular Biology Molecules to Metabolism 2.1.
Mitochondrial Electron Transport The cheetah, whose capacity for aerobic metabolism makes it one of the fastest animals.
Respiration. Cellular respiration — glucose broken down, removal of hydrogen ions and electrons by dehydrogenase enzymes releasing ATP. The role of ATP.
GO-Slim term Cluster frequency cytoplasm 1944 out of 2727 genes, 71.3% 70 out of 97 genes, 72.2% out of 72 genes, 86.1% out.
Cell lineXY11q WM WM793-P WM793-P Lu ABAB WM793:WM793-P2WM793:1205-Lu WM793 WM793:WM793-P1 Supplemental.
Cellular Respiration 101 by Leslie Patterson, M.S.
UNIT III – CELLULAR ENERGY
Regulation of metabolism on the cellular level Vladimíra Kvasnicová.
Cellular Respiration in Detail. Cellular Respiration The process where stored energy is converted to a usable form. Oxygen and glucose are converted to.
End Show Slide 1 of 37 Biology Mr. Karns Cell Respiration Krebs & Oxidative phosphorylation.
Figure S1 The base peak chromatogram of the nanoLC–MS/MS analysis for the mitochondria proteins. Time(min) Relative Abundance
Lesson 5 -Electron Transport Chain. Oxidative Phosphorylation Remember, ATP is the universal energy currency of the cell. NADH and FADH 2 reducing power.
Electron Transport Chain. NADH and FADH 2 are __________________ These electrons are transferred to a series of components that are found in the inner.
Protein. Protein and Roles 1: biological process unknown 1.1 Structural categories 1.2 organism categories 1.3 cellular component o unlocalized.
Cellular Respiration. Metabolism The sum of all the chemical processes occurring in an organism at one time Concerned with the management of material.
Cellular Respiration Topic 8.2 pt 2.
ELECTRON TRANSPORT CHAIN. An electron transport chain (ETC) couples electron transfer between an electron donor (such as NADH ) and an electron acceptor.
5 Microbial Metabolism.
Temporal Gene Expression Profiles after Focal Cerebral Ischemia in Mice Zhang Chengjie 1, 2, 3 ;Zhu Yanbing 2 ;Wang Song 2, 3 ;Zachory Wei Zheng 1, 2,
Suppl 4A Large black circles: query genes
Type Topic in here! Created by Educational Technology Network
Metabolism The sum total of ALL chemical reactions within a cell
Electron Transport and Chemiosmosis
Physiological Roles of Mitochondrial Reactive Oxygen Species
5.7 Electron Transport Chain
Chemotrophic Energy Metabolism: Aerobic Respiration
Kathryn E. Wellen, Craig B. Thompson  Molecular Cell 
Key Area 2b Electron Transport Chain
Kathryn E. Wellen, Craig B. Thompson  Molecular Cell 
Why Have Organelles Retained Genomes?
Presentation transcript:

Supplementary Material 3 Gene ontology annotation of cellular component, molecular function and biological processes for both hypoxia and NAP supplemented hypoxia after 3, 6 and 12 h of hypobaric hypoxia exposure. All the identified pathways were sorted according to the significance value.

3h hypoxia Cellular Component IDNameP-value Hit Count in Query List Hit Count in GenomeHit in Query List GO: mitochondrion CRYM,AK1,GAPDH,SOD1,COX6A1,C OX5A,ATP5C1,NDUFA10,GPD1,COX5 B,PPP3CA,DPYSL2,MCL1,ALKBH3,MP ST,PSMA6 GO: mitochondrial membrane COX6A1,COX5A,ATP5C1,NDUFA10,C OX5B,MCL1,MPST GO: mitochondrial inner membrane COX6A1,COX5A,ATP5C1,NDUFA10,C OX5B,MPST GO: proteasome core complex, alpha-subunit complex PSMA6,PSMA1 GO: hemoglobin complex HBB,HBA1 3h hypoxia + NAP Cellular Component IDNameP-value Hit Count in Query List Hit Count in GenomeHit in Query List GO: mitochondrion CRYM,AK1,PSMC2,GAPDH,SOD1,PRD X2,COX5A,COX6A1,ATP5C1,NDUFA1 0,GPD1,COX5B,PPP3CA,DPYSL2,MPS T GO: soluble fraction ENO1,PAFAH1B1,GPD1,PPP3CA,DPYS L2,HBA1,TPI1,ACTB GO: neuron projection AK1,PTK2B,SYT1,CA2,SOD1,PAFAH1 B1,DPYSL2,ACTB GO: cell projection AK1,PTK2B,SYT1,CA2,SOD1,CDC42,P AFAH1B1,GNB1,DPYSL2,ACTB GO: mitochondrial inner membrane COX5A,COX6A1,ATP5C1,NDUFA10,C OX5B,MPST GO: cell fraction VCP,ENO1,GDI1,PAFAH1B1,GPD1,PPP 3CA,DPYSL2,GNAO1,HBA1,TPI1,ACT B GO: synaptosome ENO1,GDI1,DPYSL2,GNAO1 Table 1. Gene ontology annotation of the differentially expressed proteins of 3h hypoxia exposed and NAP supplemented hippocampus. The distribution of identified proteins according to their cellular component.

Figure 1. Gene ontology annotation of the differentially expressed proteins of 3h hypoxia exposed and NAP supplemented hippocampus. The distribution of identified proteins according to their cellular component (3H hypoxia and 3HT-NAP supplemented hypoxia).

3h hypoxia Molecular Function IDNameP-value Hit Count in Query List Hit Count in Genome Hit in Query List GO: Oxidoreductase activity GAPDH,SOD1,COX6A1,COX5A,NDUF A10,GPD1,COX5B,AKR1B1,ALKBH3 GO: Cytochrome-c oxidase activity COX6A1,COX5A,COX5B GO: Oxidoreductase activity, acting on a heme group of donors, oxygen as acceptor COX6A1,COX5A,COX5B GO: Hydrogen ion transmembrane transporter activity COX6A1,COX5A,ATP5C1,COX5B 3h hypoxia +NAP Molecular Function IDNameP-value Hit Count in Query List Hit Count in Genome Hit in Query List GO: Cytochrome-c oxidase activity COX5A,COX6A1,COX5B GO: Oxidoreductase activity, acting on a heme group of donors COX5A,COX6A1,COX5B GO: Identical protein binding VCP,CRYM,SYT1,ENO1,SOD1,PAFAH 1B1,GPD1,KITLG,DNM1 GO: Hydrogen ion transmembrane transporter activity COX5A,COX6A1,ATP5C1,COX5B Table 2. Gene ontology annotation of the differentially expressed proteins of 3h hypoxia exposed and NAP supplemented hippocampus. The distribution of identified proteins according to their molecular function.

Figure 2. Gene ontology annotation of the differentially expressed proteins of 3h hypoxia exposed and NAP supplemented hippocampus. The distribution of identified proteins according to their molecular function (3H hypoxia and 3HT-NAP supplemented hypoxia).

3h hypoxia Biological Process IDNameP-value Hit Count in Query List Hit Count in Genome Hit in Query List GO: Generation of precursor metabolites and energy GAPDH,COX6A1,COX5A,ATP5C1,ND UFA10,GNB1,COX5B GO: Oxidation-reduction process GAPDH,SOD1,COX6A1,COX5A,ATP5 C1,NDUFA10,GPD1,GNB1,COX5B,AK R1B1,ALKBH3,CAB39 GO: Respiratory electron transport chain COX6A1,COX5A,ATP5C1,NDUFA10, COX5B GO: Response to hydrogen peroxide HBB,PTK2B,SOD1,GNAO1 GO: Response to reactive oxygen species HBB,PTK2B,SOD1,GNAO1 GO: Energy derivation by oxidation of organic compounds COX6A1,COX5A,ATP5C1,NDUFA10, GNB1,COX5B GO: Response to calcium ion PTK2B,SYT1,GDI1,ACTB 3h hypoxia +NAP Biological Process IDNameP-value Hit Count in Query List Hit Count in Genome Hit in Query List GO: Generation of precursor metabolites and energy GAPDH,ENO1,COX5A,COX6A1,ATP5 C1,NDUFA10,GNB1,COX5B,TPI1 GO: Oxidation-reduction process GAPDH,SOD1,PRDX2,COX5A,COX6 A1,ATP5C1,NDUFA10,GPD1,GNB1,C OX5B,TPI1,CAB39 GO: Respiratory electron transport chain COX5A,COX6A1,ATP5C1,NDUFA10, COX5B GO: Response to hydrogen peroxide HBB,PTK2B,SOD1,PRDX2,GNAO1 GO: Response to reactive oxygen species HBB,PTK2B,SOD1,PRDX2,GNAO1 GO: Response to calcium ion PTK2B,SYT1,GDI1,ACTB GO: Nucleotide metabolic process VCP,AK1,PSMC2,PTK2B,GDI1,ATP5C 1,PAFAH1B1,GPD1,GNAO1,TPI1,CMP K1,DNM1 GO: Carboxylic acid metabolic process PSMC5,CRYM,PSMC2,GAPDH,ENO1, SOD1,GPD1,GSTP1,TPI1,CAB39 GO: Positive regulation of molecular function PSMC5,VCP,PSMC2,PTK2B,ENO1,SO D1,PRDX2,GNB1,GNAO1,KITLG Table 3. Gene ontology annotation of the differentially expressed proteins of 3h hypoxia exposed and NAP supplemented hippocampus. The distribution of identified proteins according to their biological process.

Figure 3. Gene ontology annotation of the differentially expressed proteins of 3h hypoxia exposed and NAP supplemented hippocampus. The distribution of identified proteins according to their biological process (3H hypoxia and 3HT-NAP supplemented hypoxia).

6h hypoxia Cellular Component IDNameP-value Hit Count in Query List Hit Count in Genome Hit in Query List GO: Mitochondrion AK1,PSMC2,GAPDH,SOD1,COX5A,COX6A1,ATP 5C1,PRDX5,NDUFA10,DDAH1,GPD1,COX5B,DP YSL2,MCL1,UQCRFS1,PEBP1,ALKBH3,MPST,GL UL GO: Mitochondrial membrane COX5A,COX6A1,ATP5C1,NDUFA10,COX5B,MCL 1,UQCRFS1,PEBP1,MPST GO: Axon PTK2B,CA2,DPYSL2,PEBP1,GLUL,ACTB GO: Soluble fraction GPD1,RAB1A,DPYSL2,PEBP1,HBA1,GLUL,ACTB GO: Synaptosome GDI1,DPYSL2,PEBP1,GLUL GO: Proteasome complex VCP,PSMC2,PSMA1 GO: Mitochondrial respiratory chain COX6A1,NDUFA10,UQCRFS1 GO: Neuron projection AK1,PTK2B,CA2,SOD1,DPYSL2,PEBP1,GLUL,AC TB GO: Mitochondrial part SOD1,COX5A,COX6A1,ATP5C1,NDUFA10,COX5 B,MCL1,UQCRFS1,PEBP1,MPST GO: Organelle envelope COX5A,COX6A1,ATP5C1,NDUFA10,COX5B,MCL 1,UQCRFS1,PEBP1,MPST GO: Cell projection AK1,PTK2B,CA2,SOD1,CDC42,DPYSL2,PEBP1,G LUL,ACTB GO: Hemoglobin complex HBB,HBA1 6h hypoxia + NAP Cellular Component IDNameP-value Hit Count in Query List Hit Count in Genome Hit in Query List GO: Mitochondrion PSMC2,GAPDH,RHOA,COX5A,ACADL,UQCRFS1,PEBP1,ALKBH3,MPST,CRYM,AK1,NME1,SOD1, ACOT7,PRDX2,COX6A1,ATP5C1,DDAH1,COX5B,PPP3CA,DPYSL2,MCL1,PSMA6,GLUL,MDH1 GO: Soluble fraction ENO1,RHOA,PAFAH1B1,PEBP1,ACTB,NME1,PPP 3CA,DPYSL2,HBA1,GLUL,MDH1 GO: Proteasome complex PSMC5,VCP,PSMC2,PSMA6,PSMA1 GO: Synaptosome ENO1,PEBP1,GDI1,DPYSL2,GNAO1,GLUL GO: Mitochondrial membrane COX5A,ACADL,UQCRFS1,PEBP1,MPST,COX6A1,ATP5C1,COX5B,MCL1 GO: Mitochondrial part COX5A,ACADL,UQCRFS1,PEBP1,MPST,SOD1,C OX6A1,ATP5C1,COX5B,MCL1 GO: Cell fraction VCP,ENO1,RHOA,PAFAH1B1,PEBP1,ACTB,NME 1,GDI1,PPP3CA,DPYSL2,GNAO1,HBA1,GLUL,M DH1 GO: Organelle envelope COX5A,ACADL,PAFAH1B1,UQCRFS1,PEBP1,MP ST,COX6A1,ATP5C1,COX5B,MCL1 GO: Axon RHOA,PAFAH1B1,PEBP1,ACTB,DPYSL2,GLUL GO: Membrane fraction VCP,ENO1,RHOA,PAFAH1B1,PEBP1,NME1,GDI1,PPP3CA,DPYSL2,GNAO1,GLUL GO: Neuron projection RHOA,PAFAH1B1,PEBP1,ACTB,AK1,SOD1,DPYS L2,GLUL Table 4. Gene ontology annotation of the differentially expressed proteins of 6h hypoxia exposed and NAP supplemented hippocampus. The distribution of identified proteins according to their cellular component.

Figure 4. Gene ontology annotation of the differentially expressed proteins of 6h hypoxia exposed and NAP supplemented hippocampus. The distribution of identified proteins according to their cellular component (6H hypoxia and 6HT-NAP supplemented hypoxia).

6h hypoxia Molecular Function IDNameP-value Hit Count in Query List Hit Count in Genome Hit in Query List GO: Oxidoreductase activity GAPDH,SOD1,COX5A,COX6A1,PRD X5,NDUFA10,GPD1,COX5B,UQCRF S1,ALKBH3 GO: Hydrogen ion transmembrane transporter activity COX5A,COX6A1,ATP5C1,COX5B,U QCRFS1 GO: Cytochrome-c oxidase activity COX5A,COX6A1,COX5B GO: Oxidoreductase activity, acting on a heme group of donors, oxygen as acceptor COX5A,COX6A1,COX5B GO: Inorganic cation transmembrane transporter activity COX5A,COX6A1,ATP5C1,COX5B,U QCRFS1 6h hypoxia +NAP Molecular Function IDNameP-value Hit Count in Query List Hit Count in Genome Hit in Query List GO: Oxidoreductase activity GAPDH,COX5A,ACADL,UQCRFS1, ALKBH3,SOD1,PRDX2,COX6A1,GS TO1,COX5B,AKR1B1,MDH1 GO: Hydrogen ion transmembrane transporter activity COX5A,UQCRFS1,COX6A1,ATP5C1, COX5B GO: Carboxylic acid binding ACADL,GSTP1,ALKBH3,ACOT7,DD AH1,GLUL GO: Glutathione transferase activity GSTP1,GSTM5,GSTO1 GO: Cytochrome-c oxidase activity COX5A,COX6A1,COX5B GO: Oxidoreductase activity, acting on a heme group of donors, oxygen as acceptor COX5A,COX6A1,COX5B Table 5. Gene ontology annotation of the differentially expressed proteins of 6h hypoxia exposed and NAP supplemented hippocampus. The distribution of identified proteins according to their molecular function.

Figure 5. Gene ontology annotation of the differentially expressed proteins of 6h hypoxia exposed and NAP supplemented hippocampus. The distribution of identified proteins according to their molecular function (6H hypoxia and 6HT-NAP supplemented hypoxia).

6h hypoxia Biological Process IDNameP-value Hit Count in Query List Hit Count in Genome Hit in Query List GO: Respiratory electron transport chain COX5A,COX6A1,ATP5C1,NDUFA10,COX5B,UQCRFS1 GO: Oxidation-reduction process GAPDH,SOD1,COX5A,COX6A1,ATP5C1,PR DX5,NDUFA10,GPD1,COX5B,UQCRFS1,AL KBH3 GO: Generation of precursor metabolites and energy GAPDH,COX5A,COX6A1,ATP5C1,NDUFA1 0,COX5B,UQCRFS1 GO: Carboxylic acid metabolic process PSMC2,GAPDH,SOD1,DDAH1,GPD1,GSTP1, PCMT1,GLUL,PSMA1 GO: Cellular respiration COX5A,COX6A1,ATP5C1,NDUFA10,COX5B,UQCRFS1 GO: Response to calcium ion PTK2B,GDI1,PEBP1,ACTB GO: Energy derivation by oxidation of organic compounds COX5A,COX6A1,ATP5C1,NDUFA10,COX5B,UQCRFS1 GO: Protein nitrosylation GAPDH,DDAH1 6h hypoxia +NAP Biological Process IDNameP-value Hit Count in Query List Hit Count in Genome Hit in Query List GO: Carboxylic acid metabolic process PSMC5,PGAM1,PSMC2,GAPDH,ENO1,ACA DL,GSTP1,CAB39,CRYM,SOD1,ACOT7,GST O1,DDAH1,PSMA6,GLUL,MDH1,PSMA1 GO: Cellular respiration COX5A,UQCRFS1,COX6A1,ATP5C1,COX5B,MDH1 GO: Cellular response to stress PSMC5,VCP,RPS6KA1,PSMC2,RHOA,ALKB H3,HBB,UBE2N,SOD1,PRDX2,AKR1B1,PSM A6,PSMA1 GO: Generation of precursor metabolites and energy PGAM1,GAPDH,ENO1,COX5A,UQCRFS1,C OX6A1,ATP5C1,GNB1,COX5B,MDH1 GO: Negative regulation of protein modification process PSMC5,PSMC2,PEBP1,PSMA6,PSMA1,IMPA CT GO: Oxidation-reduction process PGAM1,GAPDH,COX5A,ACADL,UQCRFS1, ALKBH3,CAB39,SOD1,PRDX2,COX6A1,AT P5C1,GNB1,COX5B,AKR1B1,MDH1 GO: Positive regulation of molecular function PSMC5,VCP,PSMC2,ENO1,RHOA,UBE2N,N ME1,SOD1,PRDX2,GNB1,RGN,GNAO1,PSM A6,PSMA1 GO: Respiratory electron transport chain COX5A,UQCRFS1,COX6A1,ATP5C1,COX5B GO: Positive regulation of catalytic activity PSMC5,VCP,PSMC2,RHOA,UBE2N,SOD1,P RDX2,GNB1,RGN,GNAO1,PSMA6,PSMA1 GO: Positive regulation of cell cycle process PSMC5,PSMC2,PEBP1,PSMA6,PSMA1 GO: Positive regulation of protein ubiquitination PSMC5,PSMC2,UBE2N,PSMA6,PSMA1 GO: Gluconeogenesis PGAM1,GAPDH,ENO1,MDH1 GO: Nucleobase, nucleoside and nucleotide metabolic process VCP,PGAM1,PSMC2,PAFAH1B1,DNM1,AK 1,NME1,GDI1,ATP5C1,RGN,GNAO1,MDH1 Table 6. Gene ontology annotation of the differentially expressed proteins of 6h hypoxia exposed and NAP supplemented hippocampus. The distribution of identified proteins according to their biological process.

Figure 6. Gene ontology annotation of the differentially expressed proteins of 6h hypoxia exposed and NAP supplemented hippocampus. The distribution of identified proteins according to their biological process (6H hypoxia and 6HT-NAP supplemented hypoxia).

12h hypoxia Cellular Component IDNameP-value Hit Count in Query List Hit Count in Genome Hit in Query List GO: Mitochondrion PSMC2,GAPDH,RHOA,COX5A,ACADL,GP D1,PARK7,PEBP1,CRYM,AK1,NME1,SOD1, PRDX2,COX6A1,ATP5C1,PRDX5,NDUFA10, DDAH1,COX5B,PPP3CA,MCL1,GLUL GO: Soluble fraction ENO1,RHOA,PAFAH1B1,HSPB1,GPD1,RAB 1A,PEBP1,ACTB,NME1,PPP3CA,HBA1,TPI1, GLUL GO: Neuron projection PTK2B,RHOA,PAFAH1B1,PARK7,PEBP1,A CTB,AK1,SYT1,CA2,SOD1,GLUL GO: Proteasome complex PSMC5,VCP,PSMC2,HSPB1,PSMA1 GO: Axon PTK2B,RHOA,PAFAH1B1,PARK7,PEBP1,A CTB,CA2,GLUL GO: Cell projection PTK2B,RHOA,PAFAH1B1,PARK7,PEBP1,A CTB,AK1,SYT1,CA2,SOD1,CDC42,GNB1,GL UL GO: Cell fraction VCP,ENO1,RHOA,PAFAH1B1,HSPB1,GPD1, RAB1A,PEBP1,ACTB,NME1,PPP3CA,GNAO 1,HBA1,TPI1,GLUL GO: Mitochondrial membrane COX5A,ACADL,PEBP1,COX6A1,ATP5C1,N DUFA10,COX5B,MCL1 12h hypoxia +NAP Cellular Component IDNameP-value Hit Count in Query List Hit Count in Genome Hit in Query List GO: Mitochondrion AK1,NME1,RHOA,SOD1,PRDX2,COX6A1,C OX5A,ATP5C1,PRDX5,NDUFA10,DDAH1,G PD1,PPP3CA,PARK7,MCL1,PEBP1 GO: Soluble fraction ENO1,NME1,RHOA,GPD1,RAB1A,PPP3CA, PEBP1,HBA1,TPI1 GO: Neuron projection AK1,PTK2B,SYT1,CA2,RHOA,SOD1,PARK7,PEBP1 GO: Cell fraction VCP,ENO1,NME1,RHOA,GPD1,RAB1A,PPP 3CA,GNAO1,PEBP1,HBA1,TPI1 GO: Axon PTK2B,CA2,RHOA,PARK7,PEBP1 GO: Hemoglobin complex HBB,HBA1 GO: Mitochondrial membrane COX6A1,COX5A,ATP5C1,NDUFA10,MCL1, PEBP1 Table 7. Gene ontology annotation of the differentially expressed proteins of 12h hypoxia exposed and NAP supplemented hippocampus. The distribution of identified proteins according to their cellular component.

Figure 7. Gene ontology annotation of the differentially expressed proteins of 12h hypoxia exposed and NAP supplemented hippocampus. The distribution of identified proteins according to their cellular component (12H hypoxia and 12HT-NAP supplemented hypoxia).

12h hypoxia Molecular Function IDNameP-value Hit Count in Query List Hit Count in Genome Hit in Query List GO: Identical protein binding VCP,ENO1,PAFAH1B1,HSPB1,GPD1,KITLG,DNM1,CRYM,SYT1,NME1,SOD1,GSTA4,P CMT1,GLUL GO: Peroxiredoxin activity PARK7,PRDX2,PRDX5 GO: Oxidoreductase activity GAPDH,COX5A,ACADL,GPD1,PARK7,SOD 1,PRDX2,COX6A1,PRDX5,NDUFA10,GSTO 1,COX5B GO: GTPase activity RHOA,RAB1A,DNM1,CDC42,ARF1,GNB1,G NAO1 GO: Nucleoside-triphosphatase activity PSMC5,VCP,PSMC2,RHOA,RAB1A,DNM1,C DC42,ATP5C1,ARF1,GNB1,GNAO1 GO: GTP binding RHOA,RAB19,RAB1A,DNM1,NME1,CDC42, ARF1,GNAO1 GO: Guanyl nucleotide binding RHOA,RAB19,RAB1A,DNM1,NME1,CDC42, ARF1,GNAO1 GO: Hydrolase activity, acting on acid anhydrides, in phosphorus- containing anhydrides PSMC5,VCP,PSMC2,RHOA,RAB1A,DNM1,C DC42,ATP5C1,ARF1,GNB1,GNAO1 GO: Glutathione transferase activity GSTM5,GSTA4,GSTO1 GO: Cytochrome-c oxidase activity COX5A,COX6A1,COX5B 12h hypoxia + NAP Molecular Function IDNameP-value Hit Count in Query List Hit Count in Genome Hit in Query List GO: Peroxiredoxin activity PRDX2,PRDX5,PARK7 GO: Phosphotransferase activity, phosphate group as acceptor AK1,NME1,CMPK1 GO: GTPase activity RHOA,ARF1,RAB1A,GNAO1,DNM1 GO: Oxidoreductase activity SOD1,PRDX2,COX6A1,COX5A,PRDX5,NDU FA10,GPD1,PARK7 GO: GTP binding NME1,RHOA,ARF1,RAB1A,GNAO1,DNM1 GO: Guanyl nucleotide binding NME1,RHOA,ARF1,RAB1A,GNAO1,DNM1 GO: Antioxidant activity SOD1,PRDX2,PRDX5 Table 8. Gene ontology annotation of the differentially expressed proteins of 12h hypoxia exposed and NAP supplemented hippocampus. The distribution of identified proteins according to their molecular function.

Figure 8. Gene ontology annotation of the differentially expressed proteins of 12h hypoxia exposed and NAP supplemented hippocampus. The distribution of identified proteins according to their molecular function (12H hypoxia and 12HT-NAP supplemented hypoxia).

12h hypoxia Biological Process IDNameP-value Hit Count in Query List Hit Count in Genome Hit in Query List GO: Response to reactive oxygen species PTK2B,PARK7,HBB,SOD1,PRDX2,PRDX5,G NAO1 GO: Response to hydrogen peroxide PTK2B,PARK7,HBB,SOD1,PRDX2,GNAO1 GO: Response to oxidative stress PTK2B,PARK7,PEBP1,HBB,SOD1,PRDX2,PR DX5,GNAO1 GO: Nucleotide metabolic process VCP,PGAM1,PSMC2,PTK2B,PAFAH1B1,GP D1,CMPK1,DNM1,AK1,NME1,ATP5C1,GNA O1,TPI1 GO: Oxidation-reduction process PGAM1,GAPDH,COX5A,ACADL,GPD1,CAB 39,SOD1,PRDX2,COX6A1,ATP5C1,PRDX5,N DUFA10,GNB1,COX5B,TPI1 GO: Positive regulation of molecular function PSMC5,VCP,PSMC2,PTK2B,ENO1,RHOA,KI TLG,NME1,SOD1,PRDX2,GNB1,GNAO1,PS MA1 GO: Oxygen and reactive oxygen species metabolic process PTK2B,PARK7,HBB,SOD1,PRDX2 GO: Cellular response to reactive oxygen species HBB,SOD1,PRDX2,PRDX5 GO: Cellular homeostasis PTK2B,PARK7,CA2,SOD1,PRDX2,PRDX5,A RF1,GNB1,PPP3CA,MCL1 GO: Nucleotide phosphorylation CMPK1,AK1,NME1 GO: Carboxylic acid metabolic process PSMC5,PGAM1,PSMC2,GAPDH,ENO1,ACA DL,GPD1,CAB39,CRYM,SOD1,GSTA4,GSTO 1,DDAH1,PCMT1,TPI1,GLUL,PSMA1 GO: Gluconeogenesis PGAM1,GAPDH,ENO1,GPD1,TPI1 GO: Generation of precursor metabolites and energy PGAM1,GAPDH,ENO1,COX5A,COX6A1,AT P5C1,NDUFA10,GNB1,COX5B,TPI1 GO: Regulation of cell death PSMC5,VCP,PSMC2,PTK2B,RHOA,HSPB1,K ITLG,HBB,NME1,SOD1,PRDX2,PRDX5,MCL 1,PSMA1 GO: Hydrogen peroxide metabolic process PARK7,HBB,SOD1,PRDX2 GO: Protein complex assembly VCP,PTK2B,RHOA,ACADL,CAB39,HBB,SY T1,CDC42,HBA1,GLUL GO: Respiratory electron transport chain COX5A,COX6A1,ATP5C1,NDUFA10,COX5B GO: Positive regulation of catalytic activity PSMC5,VCP,PSMC2,PTK2B,RHOA,KITLG,S OD1,PRDX2,GNB1,GNAO1,PSMA1 GO: Protein oligomerization VCP,ACADL,CAB39,HBB,SYT1,HBA1,GLUL GO: Homeostatic process PTK2B,ACADL,PARK7,KITLG,CA2,SOD1,P RDX2,PRDX5,ARF1,GNB1,PPP3CA,MCL1,H BA1 Table 9a. Gene ontology annotation of the differentially expressed proteins of 12h hypoxia exposed hippocampus. The distribution of identified proteins according to their biological process.

12h hypoxia +NAP Biological Process IDNameP-value Hit Count in Query List Hit Count in Genome Hit in Query List GO: Response to hydrogen peroxide HBB,PTK2B,SOD1,PRDX2,PARK7,GNAO1 GO: Response to oxidative stress HBB,PTK2B,SOD1,PRDX2,PRDX5,PARK7, GNAO1,PEBP1 GO: Response to reactive oxygen species HBB,PTK2B,SOD1,PRDX2,PRDX5,PARK7, GNAO1 GO: Nucleotide metabolic process VCP,AK1,PTK2B,NME1,ATP5C1,GPD1,GN AO1,TPI1,CMPK1,DNM1 GO: Oxidation-reduction process SOD1,PRDX2,COX6A1,COX5A,ATP5C1,PR DX5,NDUFA10,GPD1,TPI1,CAB39 GO: Positive regulation of molecular function VCP,PTK2B,UBE2N,ENO1,NME1,RHOA,SO D1,PRDX2,GNAO1 GO: Cellular response to reactive oxygen species HBB,SOD1,PRDX2,PRDX5 GO: Oxygen and reactive oxygen species metabolic process HBB,PTK2B,SOD1,PRDX2,PARK7 GO: Cellular homeostasis PTK2B,CA2,SOD1,PRDX2,PRDX5,ARF1,PP P3CA,PARK7,MCL1 GO: Nucleotide phosphorylation AK1,NME1,CMPK1 GO: Cellular response to oxidative stress HBB,SOD1,PRDX2,PRDX5 GO: Circulatory system process HBB,RHOA,SOD1,GNAO1,PEBP1,HBA1 Table 9b. Gene ontology annotation of the differentially expressed proteins of 12h hypoxia with NAP supplemented hippocampus. The distribution of identified proteins according to their biological process.

Figure 9. Gene ontology annotation of the differentially expressed proteins of 12h hypoxia exposed and NAP supplemented hippocampus. The distribution of identified proteins according to their biological process (12H hypoxia and 12HT-NAP supplemented hypoxia).