#modules collapsed #TFs #Names and functional classification of TFs 2800 122 ACE2, Cytokinesis ADR1, Carbon compound metabolism : Peroxisome biogenesis AFT2, Iron homeostasis : Stress response (oxidative) ARG80, Amino acid metabolism ARG81, Amino acid metabolism ARO80, Amino acid metabolism ARR1, Stress response (Arsenic) ASH1, Homothallic switching AZF1, Cell division BAS1, Nucleotide biosynthesis CAD1, Stress response (Cadmium) CAT8, Diauxic shift : Carbon compound metabolism CIN5, Stress response (salt tolerance) : Drug response CRZ1, Stress response (tolerance to high metal concentration) CST6, Carbon catobolism (non-optimal source) CUP9, Copper homeostasis CYC8, Stress response: Cell division : Flocculation DAL80, Nitrogen metabolism DAL81, Nitrogen metabolism DAT1, Binds AT rich sequence FKH1, Cell cycle : Cell differentiation FKH2, Cell cycle : Cell differentiation FZF1, Sulphite metabolism GAL4, Carbohydrate metabolism GAL80, Carbohydrate metabolism GAT1, Nitrogen metabolism GCN4, Amino acid metabolism GLN3, Nitrogen metabolism GZF3, Nitrogen metabolism HAC1, Protein folding : Fatty acid biosynthesis HAL9, Salt tolerance HAP1, Osmoregulation HAP4, Electron transport : Ergosterol biosynthesis HCM1, Cell cycle HMLALPHA2, Mating type specificity HMRA1, Mating type specificity HMRA2, Mating type specificity HMS1, Cell differentiation HMS2, Cell differentiation HSF1, Stress response (heat shock) INO2, Phospholipid biosynthesis INO4, Fatty acid biosynthesis IXR1, Oxygen regulation LEU3, Amino acid metabolism LYS14, Amino acid metabolism MAC1, Copper and Iron transport MAL33, Carbohydrate metabolism MBP1, Cell cycle MCM1, Cell cycle MET28, Amino acid metabolism MET31, Amino acid metabolism MET32, Amino acid metabolism MET4, Amino acid metabolism MGA1, Cell differentiation MIG1, Glucose metabolism MIG2, Glucose metabolism MIG3, Reistance to hydroxyurea : Carbohydrate metabolism MOT3, Regulation of hypoxic genes : Ergosterol biosynthesis MSN1, Cell differentiation : Stress (osmotic) MSN2, "Stress response (heat, oxidative and carbon compound deprivation)" MSN4, "Stress response (heat, oxidative and carbon compound deprivation)" MSS11, Cell differentiation : Starch catabolism NDT80, Sporulation NRG1, Glucose metabolism : Drug response : Cell differentiation OAF1, Fatty acid metabolism : Peroxisome biogenesis PDC2, Glucose catabolism : Thiamin biosynthesis PDR1, Drug response PDR3, Drug response PHD1, Cell differentiation PHO2, Phosphate metabolism : Nucleotide metabolism : Amino acid metabolism PHO4, Phosphate metabolism PIP2, Fatty acid metabolism : Peroxisome biogenesis PPR1, Nucleotide biosynthesis PUT3, Proline utilization RAP1, Ribosome biogenesis : Glucose metabolism RCS1, Iron transport : mRNA processing : Vesicle trafficking RDS1, Resistance to cycloheximide REB1, Cell division : rRNA biosynthesis RIM101, pH regulation : Cell differentiation RLM1, Cellular integrity RME1, Cell division : Cell differentiation ROX1, Electron transport RPH1, DNA damage RPN4, Proteasome : Ubiquitin signalling RTG1, Intracellular communication RTG3, Amino acid metabolism : Citrate metabolism SFP1, Ribosome biogenesis : Cell division : Cell size SIP4, Gluconeogenesis SKN7, "Stress response (heat shock, oxidative), Osmoregulation" SKO1, "Stress response (osmotic, oxidative)" SMP1, Stress response (osmotic) SOK2, Cell differentiation SPT23, Fatty acid metabolism : Response to cold SRD1, rRNA processing STB4, Uncharacterized STB5, Drug response STE12, Pheromone response STP1, tRNA processing : Amino acid permease expression STP2, tRNA processing : Amino acid permease expression SUM1, Cell cycle repressor of sporulation genes SUT1, Sterol synthesis and uptake : Induction of hypoxic gene expression SWI4, Cell division SWI5, Cell cycle SWI6, Cell cycle TEC1, Cell differentiation THI2, Thiamine biosynthesis UGA3, Nitrogen metabolism UME6, Sporulation : Amino acid biosynthesis UPC2, Ergosterol biosynthesis XBP1, Carbohydrate metabolism : Cell cycle YAP1, "Stress response (oxidative, metal ion), Drug response" YAP3, Stress response YAP6, Stress response (salt tolerance) YAP7, Stress response (salt tolerance ) YER130C, Uncharacterized YHP1, Cell cycle YJL206C, Uncharacterized YKR064W, Uncharacterized YML081W, Uncharacterized YOX1, Cell cycle YRR1, Drug response ZAP1, Zinc homeostasis 2601 127 ACA1, Carbon compound metabolism ACE2, Cytokinesis ADR1, Carbon compound metabolism : Peroxisome biogenesis AFT2, Iron homeostasis : Stress response (oxidative) ARG80, Amino acid metabolism ARG81, Amino acid metabolism ARO80, Amino acid metabolism ARR1, Stress response (Arsenic) ASH1, Homothallic switching AZF1, Cell division BAS1, Nucleotide biosynthesis CAD1, Stress response (Cadmium) CAT8, Diauxic shift : Carbon compound metabolism CHA4, Amino acid metabolism CIN5, Stress response (salt tolerance) : Drug response CST6, Carbon catobolism (non-optimal source) CUP9, Copper homeostasis CYC8, Stress response: Cell division : Flocculation DAL80, Nitrogen metabolism DAL81, Nitrogen metabolism DAT1, Binds AT rich sequence ECM22, Ergosterol biosynthesis FHL1, Ribosome biogenesis FKH1, Cell cycle : Cell differentiation FKH2, Cell cycle : Cell differentiation FZF1, Sulphite metabolism GAL4, Carbohydrate metabolism GAL80, Carbohydrate metabolism GAT1, Nitrogen metabolism GAT3, Binds to sub-telomreic regions GCR1, Glycolysis GLN3, Nitrogen metabolism GZF3, Nitrogen metabolism HAC1, Protein folding : Fatty acid biosynthesis HAL9, Salt tolerance HAP1, Osmoregulation HAP4, Electron transport : Ergosterol biosynthesis HCM1, Cell cycle HMLALPHA2, Mating type specificity HMRA1, Mating type specificity HMRA2, Mating type specificity HMS1, Cell differentiation HMS2, Cell differentiation IXR1, Oxygen regulation LEU3, Amino acid metabolism MAC1, Copper and Iron transport MAL33, Carbohydrate metabolism MBP1, Cell cycle MET28, Amino acid metabolism MET31, Amino acid metabolism MET32, Amino acid metabolism MET4, Amino acid metabolism MGA1, Cell differentiation MIG1, Glucose metabolism MIG2, Glucose metabolism MIG3, Reistance to hydroxyurea : Carbohydrate metabolism MOT3, Regulation of hypoxic genes : Ergosterol biosynthesis MSN1, Cell differentiation : Stress (osmotic) MSN2, "Stress response (heat, oxidative and carbon compound deprivation)" MSN4, "Stress response (heat, oxidative and carbon compound deprivation)" MSS11, Cel l differentiation : Starch catabolism NDT80, Sporulation NRG1, Glucose metabolism : Drug response : Cell differentiation PDC2, Glucose catabolism : Thiamin biosynthesis PDR1, Drug response PDR3, Drug response PHD1, Cell differentiation PHO2, Phosphate metabolism : Nucleotide metabolism : Amino acid metabolism PHO4, Phosphate metabolism PIP2, Fatty acid metabolism : Peroxisome biogenesis PLM2, Partitioning of plasmid PUT3, Proline utilization RAP1, Ribosome biogenesis : Glucose metabolism RCS1, Iron transport : mRNA processing : Vesicle trafficking RDS1, Resistance to cycloheximide RGM1, Overexpression limits cell growth RGT1, Glucose metabolism RIM101, pH regulation : Cell differentiation RLM1, Cellular integrity RME1, Cell division : Cell differentiation ROX1, Electron transport RPH1, DNA damage RPN4, Proteasome : Ubiquitin signalling RTG1, Intracellular communication RTG3, Amino acid metabolism : Citrate metabolism SFP1, Ribosome biogenesis : Cell division : Cell size SIP4, Gluconeogenesis SKN7, "Stress response (heat shock, oxidative), Osmoregulation" SKO1, "Stress response (osmotic, oxidative)" SMP1, Stress response (osmotic) SOK2, Cell differentiation SPT23, Fatty acid metabolism : Response to cold SRD1, rRNA processing STB5, Drug response STE12, Pheromone response STP1, tRNA processing : Amino acid permease expression STP2, tRNA processing : Amino acid permease expression STP4, Uncharacterized SUM1, Cell cycle repressor of sporulation genes SUT1, Sterol synthesis and uptake : Induction of hypoxic gene expression SWI4, Cell division SWI5, Cell cycle SWI6, Cell cycle TEC1, Cell differentiation THI2, Thiamine biosynthesis TOS4, Cell cycle : Pheromone response TOS8, Cell cycle TYE7, Glucose metabolism UGA3, Nitrogen metabolism UME6, Sporulation : Amino acid biosynthesis XBP1, Carbohydrate metabolism : Cell cycle YAP1, "Stress response (oxidative, metal ion), Drug response" YAP3, Stress response YAP5, Stress response YAP6, Stress response (salt tolerance) YAP7, Stress response (salt tolerance) YER108C, Cell differentiation YER130C, Uncharacterized YFL044C, Uncharacterized YHP1, Cell cycle YJL206C, Uncharacterized YKR064W, Uncharacterized YML081W, Uncharacterized YOX1, Cell cycle YPR196W, Uncharacterized YRR1, Drug response ZAP1, Zinc homeostasis 1449 108 ACE2, Cytokinesis AFT2, Iron homeostasis : Stress response (oxidative) ARG80, Amino acid metabolism ARG81, Amino acid metabolism ARO80, Amino acid metabolism ARR1, Stress response (Arsenic) ASH1, Homothallic switching AZF1, Cell division CAD1, Stress response (Cadmium) CAT8, Diauxic shift : Carbon compound metabolism CIN5, Stress response (salt tolerance) : Drug response CUP9, Copper homeostasis CYC8, Stress response: Cell division : Flocculation DAL80, Nitrogen metabolism DAL81, Nitrogen metabolism DAT1, Binds AT rich sequence FKH1, Cell cycle : Cell differentiation FKH2, Cell cycle : Cell differentiation GAL4, Carbohydrate metabolism GCN4, Amino acid metabolism GCR1, Glycolysis GLN3, Nitrogen metabolism GZF3, Nitrogen metabolism HAC1, Protein folding : Fatty acid biosynthesis HAL9, Salt tolerance HAP1, Osmoregulation HAP4, Electron transport : Ergosterol biosynthesis HCM1, Cell cycle HMLALPHA1, Mating type specificity HMS1, Cell differentiation HMS2, Cell differentiation HSF1, Stress response (heat shock) INO2, Phospholipid biosynthesis INO4, Fatty acid biosynthesis IXR1, Oxygen regulation LEU3, Amino acid metabolism MAC1, Copper and Iron transport MAL33, Carbohydrate metabolism MBP1, Cell cycle MCM1, Cell cycle MET28, Amino acid metabolism MET31, Amino acid metabolism MET32, Amino acid metabolism MET4, Amino acid metabolism MGA1, Cell differentiation MIG1, Glucose metabolism MIG2, Glucose metabolism MIG3, Reistance to hydroxyurea : Carbohydrate metabolism MOT3, Regulation of hypoxic genes : Ergosterol biosynthesis MSN1, Cell differentiation : Stress (osmotic) MSN2, "Stress response (heat, oxidative and carbon compound deprivation)" MSN4, "Stress response (heat, oxidative and carbon compound deprivation)" MSS11, Cell differentiation : Starch catabolism NDT80, Sporulation NRG1, Glucose metabolism : Drug response : Cell differentiation PDC2, Glucose catabolism : Thiamin biosynthesis PDR1, Drug response PDR3, Drug response PHD1, Cell differentiation PHO2, Phosphate metabolism : Nucleotide metabolism : A mino acid metabolism PHO4, Phosphate metabolism PIP2, Fatty acid metabolism : Peroxisome biogenesis PUT3, Proline utilization RAP1, Ribosome biogenesis : Glucose metabolism RDS1, Resistance to cycloheximide RGT1, Glucose metabolism RIM101, pH regulation : Cell differentiation RLM1, Cellular integrity RME1, Cell division : Cell differentiation ROX1, Electron transport RPH1, DNA damage RPN4, Proteasome : Ubiquitin signalling RTG1, Intracellular communication RTG3, Amino acid metabolism : Citrate metabolism SFP1, Ribosome biogenesis : Cell division : Cell size SIP4, Gluconeogenesis SKN7, "Stress response (heat shock, oxidative), Osmoregulation" SKO1, "Stress response (osmotic, oxidative)" SMP1, Stress response (osmotic) SOK2, Cell differentiation SPT23, Fatty acid metabolism : Response to cold STE12, Pheromone response STP1, tRNA processing : Amino acid permease expression STP4, Uncharacterized SUM1, Cell cycle repressor of sporulation genes SUT1, Sterol synthesis and uptake : Induction of hypoxic gene expression SWI4, Cell division SWI5, Cell cycle SWI6, Cell cycle TEC1, Cell differentiation THI2, Thiamine biosynthesis TOS4, Cell cycle : Pheromone response UGA3, Nitrogen metabolism UPC2, Ergosterol biosynthesis WAR1, Stress response (weak acid) XBP1, Carbohydrate metabolism : Cell cycle YAP1, "Stress response (oxidative, metal ion), Drug response" YAP3, Stress response YAP6, Stress response (salt tolerance) YAP7, Stress response (salt tolerance) YBR033W, Uncharacterized YER108C, Cell differentiation YFL044C, Uncharacterized YJL206C, Uncharacterized YKR064W, Uncharacterized YML081W, Uncharacterized YOX1, Cell cycle ZAP1, Zinc homeostasis 426 92 ACE2, Cytokinesis ADR1, Carbon compound metabolism : Peroxisome biogenesis AFT2, Iron homeostasis : Stress response (oxidative) ARG80, Amino acid metabolism ARG81, Amino acid metabolism ARR1, Stress response (Arsenic) ASH1, Homothallic switching AZF1, Cell division BAS1, Nucleotide biosynthesis CAD1, Stress response (Cadmium) CAT8, Diauxic shift : Carbon compound metabolism CIN5, Stress response (salt tolerance) : Drug response CST6, Carbon catobolism (non-optimal source) CYC8, Stress response: Cell division : Flocculation DAL80, Nitrogen metabolism DAL81, Nitrogen metabolism DAT1, Binds AT rich sequence FZF1, Sulphite metabolism GAL4, Carbohydrate metabolism GAT1, Nitrogen metabolism GCN4, Amino acid metabolism GLN3, Nitrogen metabolism GZF3, Nitrogen metabolism HAL9, Salt tolerance HAP1, Osmoregulation HAP4, Electron transport : Ergosterol biosynthesis HMLALPHA2, Mating type specificity HMRA1, Mating type specificity HMS1, Cell differentiation HMS2, Cell differentiation IXR1, Oxygen regulation LEU3, Amino acid metabolism MAC1, Copper and Iron transport MAL33, Carbohydrate metabolism MBP1, Cell cycle MCM1, Cell cycle MET31, Amino acid metabolism MET32, Amino acid metabolism MGA1, Cell differentiation MOT3, Regulation of hypoxic genes : Ergosterol biosynthesis MSN2, "Stress response (heat, oxidative and carbon compound deprivation)" MSN4, "Stress response (heat, oxidative and carbon compound deprivation)" MSS11, Cell differentiation : Starch catabolism NDT80, Sporulation PDC2, Glucose catabolism : Thiamin biosynthesis PDR3, Drug response PHO2, Phosphate metabolism : Nucleotide metabolism : Amino acid metabolism PHO4, Phosphate metabolism PLM2, Partitioning of plasmid PPR1, Nucleotide biosynthesis PUT3, Proline utilization RAP1, Ribosome biogenesis : Glucose metabolism RCS1, Iron transport : mRNA processing : Vesicle trafficking RDS1, Resistance to cycloheximide RIM101, pH regulation : Cell differentiation RLM1, Cellular integrity ROX1, Electron transport RPH1, DNA damage RPN4, Proteasome : Ubiquitin si gnalling RTG1, Intracellular communication RTG3, Amino acid metabolism : Citrate metabolism SIP4, Gluconeogenesis SKN7, "Stress response (heat shock, oxidative), Osmoregulation" SKO1, "Stress response (osmotic, oxidative)" SMP1, Stress response (osmotic) SPT23, Fatty acid metabolism : Response to cold SRD1, rRNA processing STB5, Drug response STE12, Pheromone response STP1, tRNA processing : Amino acid permease expression STP2, tRNA processing : Amino acid permease expression SUM1, Cell cycle repressor of sporulation genes SUT1, Sterol synthesis and uptake : Induction of hypoxic gene expression TEC1, Cell differentiation THI2, Thiamine biosynthesis TYE7, Glucose metabolism UGA3, Nitrogen metabolism UPC2, Ergosterol biosynthesis XBP1, Carbohydrate metabolism : Cell cycle YAP1, "Stress response (oxidative, metal ion), Drug response" YAP3, Stress response YAP6, Stress response (salt tolerance) YAP7, Stress response (salt tolerance) YER184C, Uncharacterized YFL044C, Uncharacterized YHP1, Cell cycle YJL206C, Uncharacterized YKR064W, Uncharacterized YML081W, Uncharacterized YOX1, Cell cycle YRR1, Drug response ZAP1, Zinc homeostasis 231 71 ACE2, Cytokinesis AFT2, Iron homeostasis : Stress response (oxidative) ARG80, Amino acid metabolism ARG81, Amino acid metabolism ARO80, Amino acid metabolism ARR1, Stress response (Arsenic) ASH1, Homothallic switching AZF1, Cell division BAS1, Nucleotide biosynthesis CAD1, Stress response (Cadmium) CST6, Carbon catobolism (non-optimal source) CUP2, Copper resistance CUP9, Copper homeostasis CYC8, Stress response: Cell division : Flocculation DAL81, Nitrogen metabolism FKH1, Cell cycle : Cell differentiation FKH2, Cell cycle : Cell differentiation FZF1, Sulphite metabolism GAL4, Carbohydrate metabolism GLN3, Nitrogen metabolism GZF3, Nitrogen metabolism HAL9, Salt tolerance HAP1, Osmoregulation HMLALPHA2, Mating type specificity HMRA1, Mating type specificity HSF1, Stress response (heat shock) IXR1, Oxygen regulation LEU3, Amino acid metabolism MAC1, Copper and Iron transport MAL33, Carbohydrate metabolism MBP1, Cell cycle MCM1, Cell cycle MET31, Amino acid metabolism MIG3, Reistance to hydroxyurea : Carbohydrate metabolism MOT3, Regulation of hypoxic genes : Ergosterol biosynthesis MSN2, "Stress response (heat, oxidative and carbon compound deprivation)" MSN4, "Stress response (heat, oxidative and carbon compound deprivation)" MSS11, Cell differentiation : Starch catabolism NRG1, Glucose metabolism : Drug response : Cell differentiation OAF1, Fatty acid metabolism : Peroxisome biogenesis PDR1, Drug response PHD1, Cell differentiation PHO2, Phosphate metabolism : Nucleotide metabolism : Amino acid metabolism PHO4, Phosphate metabolism RDR1, Repressor of drug resistance RIM101, pH regulation : Cell differentiation RLM1, Cellular integrity RME1, Cell division : Cell differentiation ROX1, Electron transport RPH1, DNA damage RTG1, Intracellular communication RTG3, Amino acid metabolism : Citrate metabolism SFP1, Ribosome biogenesis : Cell division : Cell size SIP4, Gluconeogenesis SKN7, "Stress response (heat shock, oxidative), Osmoregulation" SMP1, Stress response (osmotic) SOK2, Cell differentiation SRD1, r RNA processing STP4, Uncharacterized SWI4, Cell division SWI5, Cell cycle SWI6, Cell cycle TEC1, Cell differentiation TYE7, Glucose metabolism UGA3, Nitrogen metabolism UME6, Sporulation : Amino acid biosynthesis XBP1, Carbohydrate metabolism : Cell cycle YAP1, "Stress response (oxidative, metal ion), Drug response" YAP3, Stress response YAP6, Stress response (salt tolerance) YRR1, Drug response 175 72 ABF1, Carbon compound metabolism : Cell cycle : Ribosome biogenesis : Nitrogen compound metabolism ARG81, Amino acid metabolism ARR1, Stress response (Arsenic) ASH1, Homothallic switching AZF1, Cell division BAS1, Nucleotide biosynthesis CAD1, Stress response (Cadmium) CBF1, Amino acid metabolism : DNA damage : Cell cycle : Stress response : Drug response CIN5, Stress response (salt tolerance) : Drug response DAL80, Nitrogen metabolism DAL81, Nitrogen metabolism FKH2, Cell cycle : Cell differentiation FZF1, Sulphite metabolism GAT1, Nitrogen metabolism GCN4, Amino acid metabolism GLN3, Nitrogen metabolism GZF3, Nitrogen metabolism HAL9, Salt tolerance HAP1, Osmoregulation HAP4, Electron transport : Ergosterol biosynthesis HMS1, Cell differentiation HMS2, Cell differentiation IXR1, Oxygen regulation LEU3, Amino acid metabolism LYS14, Amino acid metabolism MAC1, Copper and Iron transport MAL33, Carbohydrate metabolism MBP1, Cell cycle MET28, Amino acid metabolism MET31, Amino acid metabolism MET32, Amino acid metabolism MET4, Amino acid metabolism MIG2, Glucose metabolism MOT3, Regulation of hypoxic genes : Ergosterol biosynthesis MSN2, "Stress response (heat, oxidative and carbon compound deprivation)" MSN4, "Stress response (heat, oxidative and carbon compound deprivation)" NDT80, Sporulation NRG1, Glucose metabolism : Drug response : Cell differentiation PDC2, Glucose catabolism : Thiamin biosynthesis PDR1, Drug response PHO2, Phosphate metabolism : Nucleotide metabolism : Amino acid metabolism PIP2, Fatty acid metabolism : Peroxisome biogenesis RIM101, pH regulation : Cell differentiation RLM1, Cellular integrity RME1, Cell division : Cell differentiation ROX1, Electron transport RPH1, DNA damage RTG1, Intracellular communication RTG3, Amino acid metabolism : Citrate metabolism SIP4, Gluconeogenesis SKN7, "Stress response (heat shock, oxidative), Osmoregulation" SMP1, Stress response (osmotic) SOK2, Cell differentiation SRD1, rRNA processing STP1, tRNA processing : Amino acid permease expression SUM1, Cell cycle repressor of sporulation genes SUT1, Sterol synthesis and uptake : Induction of hypoxic gene expression TEC1, Cell differentiation THI2, Thiamine biosynthesis TOS4, Cell cycle : Pheromone response TYE7, Glucose metabolism UGA3, Nitrogen metabolism UME6, Sporulation : Amino acid biosynthesis WAR1, Stress response (weak acid) XBP1, Carbohydrate metabolism : Cell cycle YAP1, "Stress response (oxidative, metal ion), Drug response" YAP6, Stress response (salt tolerance) YAP7, Stress response (salt tolerance) YJL206C, Uncharacterized YML081W, Uncharacterized YOX1, Cell cycle YRR1, Drug response 146 77 ACE2, Cytokinesis ADR1, Carbon compound metabolism : Peroxisome biogenesis AFT2, Iron homeostasis : Stress response (oxidative) ARG81, Amino acid metabolism ARO80, Amino acid metabolism ARR1, Stress response (Arsenic) AZF1, Cell division BAS1, Nucleotide biosynthesis CAT8, Diauxic shift : Carbon compound metabolism CIN5, Stress response (salt tolerance) : Drug response CYC8, Stress response: Cell division : Flocculation DAL81, Nitrogen metabolism DAT1, Binds AT rich sequence GAL4, Carbohydrate metabolism GAL80, Carbohydrate metabolism GAT1, Nitrogen metabolism GCR1, Glycolysis GLN3, Nitrogen metabolism HAL9, Salt tolerance HAP1, Osmoregulation HMRA1, Mating type specificity HMS1, Cell differentiation HMS2, Cell differentiation HSF1, Stress response (heat shock) INO2, Phospholipid biosynthesis IXR1, Oxygen regulation LEU3, Amino acid metabolism MAC1, Copper and Iron transport MAL33, Carbohydrate metabolism MCM1, Cell cycle MET31, Amino acid metabolism MET4, Amino acid metabolism MIG1, Glucose metabolism MIG2, Glucose metabolism MIG3, Reistance to hydroxyurea : Carbohydrate metabolism MOT3, Regulation of hypoxic genes : Ergosterol biosynthesis MSN1, Cell differentiation : Stress (osmotic) MSN2, "Stress response (heat, oxidative and carbon compound deprivation)" MSN4, "Stress response (heat, oxidative and carbon compound deprivation)" MSS11, Cell differentiation : Starch catabolism NRG1, Glucose metabolism : Drug response : Cell differentiation PDC2, Glucose catabolism : Thiamin biosynthesis PDR3, Drug response PHD1, Cell differentiation PHO2, Phosphate metabolism : Nucleotide metabolism : Amino acid metabolism PIP2, Fatty acid metabolism : Peroxisome biogenesis PUT3, Proline utilization RDS1, Resistance to cycloheximide RGT1, Glucose metabolism RIM101, pH regulation : Cell differentiation RLM1, Cellular integrity RME1, Cell division : Cell differentiation ROX1, Electron transport RPH1, DNA damage RPN4, Proteasome : Ubiquitin signalling RTG1, Intracellular communication RTG3, Amino acid metabolism : Citrat e metabolism SFL1, Flocculation SFP1, Ribosome biogenesis : Cell division : Cell size SIP4, Gluconeogenesis SKN7, "Stress response (heat shock, oxidative), Osmoregulation" SKO1, "Stress response (osmotic, oxidative)" STP1, tRNA processing : Amino acid permease expression SUT1, Sterol synthesis and uptake : Induction of hypoxic gene expression SWI6, Cell cycle TEC1, Cell differentiation UGA3, Nitrogen metabolism UME6, Sporulation : Amino acid biosynthesis UPC2, Ergosterol biosynthesis XBP1, Carbohydrate metabolism : Cell cycle YAP1, "Stress response (oxidative, metal ion), Drug response" YAP5, Stress response YAP6, Stress response (salt tolerance) YER108C, Cell differentiation YJL206C, Uncharacterized YKR064W, Uncharacterized YRR1, Drug response 132 62 ACE2, Cytokinesis ADR1, Carbon compound metabolism : Peroxisome biogenesis AFT2, Iron homeostasis : Stress response (oxidative) ARG81, Amino acid metabolism ARR1, Stress response (Arsenic) ASH1, Homothallic switching BAS1, Nucleotide biosynthesis CST6, Carbon catobolism (non-optimal source) DAL80, Nitrogen metabolism DAL81, Nitrogen metabolism DAT1, Binds AT rich sequence FKH2, Cell cycle : Cell differentiation FZF1, Sulphite metabolism GAL4, Carbohydrate metabolism GAT1, Nitrogen metabolism GLN3, Nitrogen metabolism GZF3, Nitrogen metabolism HAL9, Salt tolerance HAP1, Osmoregulation HMS2, Cell differentiation LEU3, Amino acid metabolism MAC1, Copper and Iron transport MAL33, Carbohydrate metabolism MBP1, Cell cycle MCM1, Cell cycle MET31, Amino acid metabolism MIG2, Glucose metabolism MOT3, Regulation of hypoxic genes : Ergosterol biosynthesis MSN2, "Stress response (heat, oxidative and carbon compound deprivation)" MSN4, "Stress response (heat, oxidative and carbon compound deprivation)" MSS11, Cell differentiation : Starch catabolism NRG1, Glucose metabolism : Drug response : Cell differentiation PDC2, Glucose catabolism : Thiamin biosynthesis PDR1, Drug response PHO2, Phosphate metabolism : Nucleotide metabolism : Amino acid metabolism PHO4, Phosphate metabolism RCS1, Iron transport : mRNA processing : Vesicle trafficking RDS1, Resistance to cycloheximide RIM101, pH regulation : Cell differentiation RLM1, Cellular integrity ROX1, Electron transport RPH1, DNA damage RTG1, Intracellular communication RTG3, Amino acid metabolism : Citrate metabolism SIP4, Gluconeogenesis SMP1, Stress response (osmotic) STB5, Drug response STE12, Pheromone response SUT1, Sterol synthesis and uptake : Induction of hypoxic gene expression SWI4, Cell division SWI5, Cell cycle SWI6, Cell cycle TEC1, Cell differentiation UGA3, Nitrogen metabolism UPC2, Ergosterol biosynthesis XBP1, Carbohydrate metabolism : Cell cycle YAP1, "Stress response (oxidative, metal ion), Drug response" YAP3, Stress response YAP6, Stress response (sa lt tolerance) YAP7, Stress response (salt tolerance) YOX1, Cell cycle ZAP1, Zinc homeostasis 104 60 ACE2, Cytokinesis ADR1, Carbon compound metabolism : Peroxisome biogenesis AFT2, Iron homeostasis : Stress response (oxidative) ARG81, Amino acid metabolism ARO80, Amino acid metabolism ARR1, Stress response (Arsenic) ASH1, Homothallic switching AZF1, Cell division BAS1, Nucleotide biosynthesis CAD1, Stress response (Cadmium) CHA4, Amino acid metabolism CUP9, Copper homeostasis DAL80, Nitrogen metabolism DAL81, Nitrogen metabolism FKH2, Cell cycle : Cell differentiation FZF1, Sulphite metabolism GLN3, Nitrogen metabolism GZF3, Nitrogen metabolism HAP1, Osmoregulation HAP4, Electron transport : Ergosterol biosynthesis HMRA1, Mating type specificity HMS2, Cell differentiation INO4, Fatty acid biosynthesis IXR1, Oxygen regulation LEU3, Amino acid metabolism MAC1, Copper and Iron transport MAL33, Carbohydrate metabolism MBP1, Cell cycle MET31, Amino acid metabolism MSN1, Cell differentiation : Stress (osmotic) MSN2, "Stress response (heat, oxidative and carbon compound deprivation)" NRG1, Glucose metabolism : Drug response : Cell differentiation PDR1, Drug response PHD1, Cell differentiation PHO2, Phosphate metabolism : Nucleotide metabolism : Amino acid metabolism PHO4, Phosphate metabolism PIP2, Fatty acid metabolism : Peroxisome biogenesis RCS1, Iron transport : mRNA processing : Vesicle trafficking RIM101, pH regulation : Cell differentiation RLM1, Cellular integrity RME1, Cell division : Cell differentiation RPH1, DNA damage RTG1, Intracellular communication SIP4, Gluconeogenesis SMP1, Stress response (osmotic) SRD1, rRNA processing STE12, Pheromone response STP1, tRNA processing : Amino acid permease expression SWI4, Cell division SWI5, Cell cycle THI2, Thiamine biosynthesis UGA3, Nitrogen metabolism UPC2, Ergosterol biosynthesis XBP1, Carbohydrate metabolism : Cell cycle YAP1, "Stress response (oxidative, metal ion), Drug response" YAP3, Stress response YER184C, Uncharacterized YFL044C, Uncharacterized YJL206C, Uncharacterized ZAP1, Zinc homeostasis 92 62 ACE2, Cytokinesis AFT2, Iron homeostasis : Stress response (oxidative) ARG81, Amino acid metabolism ASH1, Homothallic switching AZF1, Cell division CAD1, Stress response (Cadmium) CBF1, Amino acid metabolism : DNA damage : Cell cycle : Stress response : Drug response CIN5, Stress response (salt tolerance) : Drug response CUP2, Copper resistance CYC8, Stress response: Cell division : Flocculation DAL80, Nitrogen metabolism DAL81, Nitrogen metabolism DAT1, Binds AT rich sequence GCR1, Glycolysis GLN3, Nitrogen metabolism HAL9, Salt tolerance HAP1, Osmoregulation HMLALPHA2, Mating type specificity HMS1, Cell differentiation HMS2, Cell differentiation HSF1, Stress response (heat shock) INO4, Fatty acid biosynthesis LEU3, Amino acid metabolism MAC1, Copper and Iron transport MET4, Amino acid metabolism MOT3, Regulation of hypoxic genes : Ergosterol biosynthesis MSN1, Cell differentiation : Stress (osmotic) MSN2, "Stress response (heat, oxidative and carbon compound deprivation)" MSN4, "Stress response (heat, oxidative and carbon compound deprivation)" NRG1, Glucose metabolism : Drug response : Cell differentiation PDR3, Drug response PHD1, Cell differentiation PHO2, Phosphate metabolism : Nucleotide metabolism : Amino acid metabolism PUT3, Proline utilization RCS1, Iron transport : mRNA processing : Vesicle trafficking RDS1, Resistance to cycloheximide RIM101, pH regulation : Cell differentiation RLM1, Cellular integrity ROX1, Electron transport RTG1, Intracellular communication RTG3, Amino acid metabolism : Citrate metabolism SIP4, Gluconeogenesis SKN7, "Stress response (heat shock, oxidative), Osmoregulation" SKO1, "Stress response (osmotic, oxidative)" SPT23, Fatty acid metabolism : Response to cold SRD1, rRNA processing STP1, tRNA processing : Amino acid permease expression STP2, tRNA processing : Amino acid permease expression SUT1, Sterol synthesis and uptake : Induction of hypoxic gene expression SWI4, Cell division SWI6, Cell cycle TEC1, Cell differentiation UGA3, Nitrogen metabolism UME6, Sporulation : Amino acid biosynthesis XBP1, Carbohydrate metabolism : Cell cycle YAP1, "Stress response (oxidative, metal ion), Drug response" YAP6, Stress response (salt tolerance) YAP7, Stress response (salt tolerance) YFL044C, Uncharacterized YJL206C, Uncharacterized YKR064W, Uncharacterized YML081W, Uncharacterized 92 65 ACE2, Cytokinesis ADR1, Carbon compound metabolism : Peroxisome biogenesis AFT2, Iron homeostasis : Stress response (oxidative) ARG80, Amino acid metabolism ARG81, Amino acid metabolism ARO80, Amino acid metabolism ARR1, Stress response (Arsenic) BAS1, Nucleotide biosynthesis CAD1, Stress response (Cadmium) CST6, Carbon catobolism (non-optimal source) CYC8, Stress response: Cell division : Flocculation DAL80, Nitrogen metabolism DAT1, Binds AT rich sequence FKH1, Cell cycle : Cell differentiation GAL4, Carbohydrate metabolism GAT1, Nitrogen metabolism GCR1, Glycolysis GLN3, Nitrogen metabolism GZF3, Nitrogen metabolism HAL9, Salt tolerance HMS2, Cell differentiation HSF1, Stress response (heat shock) LEU3, Amino acid metabolism MAC1, Copper and Iron transport MAL33, Carbohydrate metabolism MBP1, Cell cycle MCM1, Cell cycle MET31, Amino acid metabolism MET32, Amino acid metabolism MET4, Amino acid metabolism MGA1, Cell differentiation MIG2, Glucose metabolism MIG3, Reistance to hydroxyurea : Carbohydrate metabolism MOT3, Regulation of hypoxic genes : Ergosterol biosynthesis MSN2, "Stress response (heat, oxidative and carbon compound deprivation)" MSN4, "Stress response (heat, oxidative and carbon compound deprivation)" MSS11, Cell differentiation : Starch catabolism NRG1, Glucose metabolism : Drug response : Cell differentiation PDC2, Glucose catabolism : Thiamin biosynthesis PHO2, Phosphate metabolism : Nucleotide metabolism : Amino acid metabolism PHO4, Phosphate metabolism RCS1, Iron transport : mRNA processing : Vesicle trafficking RDS1, Resistance to cycloheximide RIM101, pH regulation : Cell differentiation RLM1, Cellular integrity ROX1, Electron transport RPH1, DNA damage RPN4, Proteasome : Ubiquitin signalling RTG1, Intracellular communication RTG3, Amino acid metabolism : Citrate metabolism SIP4, Gluconeogenesis SRD1, rRNA processing STP1, tRNA processing : Amino acid permease expression SUT1, Sterol synthesis and uptake : Induction of hypoxic gene expression SWI5, Cell cycle TEC1, Cell different iation TYE7, Glucose metabolism UGA3, Nitrogen metabolism UPC2, Ergosterol biosynthesis XBP1, Carbohydrate metabolism : Cell cycle YAP1, "Stress response (oxidative, metal ion), Drug response" YAP3, Stress response YAP5, Stress response YJL206C, Uncharacterized YRR1, Drug response 90 69 ACE2, Cytokinesis ADR1, Carbon compound metabolism : Peroxisome biogenesis AFT2, Iron homeostasis : Stress response (oxidative) ARG81, Amino acid metabolism ARR1, Stress response (Arsenic) ASH1, Homothallic switching CHA4, Amino acid metabolism CIN5, Stress response (salt tolerance) : Drug response CST6, Carbon catobolism (non-optimal source) DAL80, Nitrogen metabolism DAL81, Nitrogen metabolism DAT1, Binds AT rich sequence FKH2, Cell cycle : Cell differentiation GAL80, Carbohydrate metabolism GAT1, Nitrogen metabolism GLN3, Nitrogen metabolism GTS1, Ultradian rhythm : Cell size : Sporulation GZF3, Nitrogen metabolism HAL9, Salt tolerance HAP1, Osmoregulation HCM1, Cell cycle HMRA1, Mating type specificity HMS2, Cell differentiation IXR1, Oxygen regulation LEU3, Amino acid metabolism MAC1, Copper and Iron transport MCM1, Cell cycle MET32, Amino acid metabolism MGA1, Cell differentiation MIG2, Glucose metabolism MOT3, Regulation of hypoxic genes : Ergosterol biosynthesis MSN2, "Stress response (heat, oxidative and carbon compound deprivation)" MSN4, "Stress response (heat, oxidative and carbon compound deprivation)" MSS11, Cell differentiation : Starch catabolism NRG1, Glucose metabolism : Drug response : Cell differentiation PDR3, Drug response PHD1, Cell differentiation PHO2, Phosphate metabolism : Nucleotide metabolism : Amino acid metabolism PUT3, Proline utilization RCS1, Iron transport : mRNA processing : Vesicle trafficking RDS1, Resistance to cycloheximide RIM101, pH regulation : Cell differentiation RLM1, Cellular integrity ROX1, Electron transport RPH1, DNA damage RTG1, Intracellular communication RTG3, Amino acid metabolism : Citrate metabolism SIP4, Gluconeogenesis SKN7, "Stress response (heat shock, oxidative), Osmoregulation" SKO1, "Stress response (osmotic, oxidative)" STE12, Pheromone response STP1, tRNA processing : Amino acid permease expression SUM1, Cell cycle repressor of sporulation genes SWI5, Cell cycle TEC1, Cell differentiation TOS4, Cell cycle : Pheromone response TOS8, Cell cycl e UGA3, Nitrogen metabolism XBP1, Carbohydrate metabolism : Cell cycle YAP1, "Stress response (oxidative, metal ion), Drug response" YAP3, Stress response YAP5, Stress response YAP6, Stress response (salt tolerance) YAP7, Stress response (salt tolerance) YHP1, Cell cycle YJL206C, Uncharacterized YOX1, Cell cycle YRR1, Drug response ZAP1, Zinc homeostasis 89 52 ACE2, Cytokinesis AFT2, Iron homeostasis : Stress response (oxidative) ARG80, Amino acid metabolism ARG81, Amino acid metabolism AZF1, Cell division BAS1, Nucleotide biosynthesis CAD1, Stress response (Cadmium) CST6, Carbon catobolism (non-optimal source) DAL80, Nitrogen metabolism DAL81, Nitrogen metabolism GLN3, Nitrogen metabolism HAL9, Salt tolerance HAP1, Osmoregulation INO2, Phospholipid biosynthesis INO4, Fatty acid biosynthesis IXR1, Oxygen regulation LEU3, Amino acid metabolism MAC1, Copper and Iron transport MAL33, Carbohydrate metabolism MET31, Amino acid metabolism MET32, Amino acid metabolism MET4, Amino acid metabolism MOT3, Regulation of hypoxic genes : Ergosterol biosynthesis MSN2, "Stress response (heat, oxidative and carbon compound deprivation)" NRG1, Glucose metabolism : Drug response : Cell differentiation PHO4, Phosphate metabolism PUT3, Proline utilization RCS1, Iron transport : mRNA processing : Vesicle trafficking RDS1, Resistance to cycloheximide RIM101, pH regulation : Cell differentiation RLM1, Cellular integrity RME1, Cell division : Cell differentiation ROX1, Electron transport RPH1, DNA damage RTG1, Intracellular communication RTG3, Amino acid metabolism : Citrate metabolism SFP1, Ribosome biogenesis : Cell division : Cell size SKN7, "Stress response (heat shock, oxidative), Osmoregulation" SKO1, "Stress response (osmotic, oxidative)" SMP1, Stress response (osmotic) SUM1, Cell cycle repressor of sporulation genes SUT1, Sterol synthesis and uptake : Induction of hypoxic gene expression UGA3, Nitrogen metabolism XBP1, Carbohydrate metabolism : Cell cycle YAP1, "Stress response (oxidative, metal ion), Drug response" YAP3, Stress response YAP6, Stress response (salt tolerance) YAP7, Stress response (salt tolerance) YER130C, Uncharacterized YJL206C, Uncharacterized YML081W, Uncharacterized ZAP1, Zinc homeostasis 81 61 ACE2, Cytokinesis ARG80, Amino acid metabolism ARG81, Amino acid metabolism ASH1, Homothallic switching AZF1, Cell division CAT8, Diauxic shift : Carbon compound metabolism CIN5, Stress response (salt tolerance) : Drug response CYC8, Stress response: Cell division : Flocculation DAL81, Nitrogen metabolism FKH1, Cell cycle : Cell differentiation FKH2, Cell cycle : Cell differentiation GCN4, Amino acid metabolism GLN3, Nitrogen metabolism HAL9, Salt tolerance HMS1, Cell differentiation HMS2, Cell differentiation INO2, Phospholipid biosynthesis INO4, Fatty acid biosynthesis IXR1, Oxygen regulation MAC1, Copper and Iron transport MBP1, Cell cycle MCM1, Cell cycle MET28, Amino acid metabolism MET31, Amino acid metabolism MGA1, Cell differentiation MOT3, Regulation of hypoxic genes : Ergosterol biosynthesis MSN2, "Stress response (heat, oxidative and carbon compound deprivation)" MSN4, "Stress response (heat, oxidative and carbon compound deprivation)" NDT80, Sporulation PHD1, Cell differentiation PHO2, Phosphate metabolism : Nucleotide metabolism : Amino acid metabolism PHO4, Phosphate metabolism PUT3, Proline utilization RAP1, Ribosome biogenesis : Glucose metabolism RDS1, Resistance to cycloheximide RIM101, pH regulation : Cell differentiation RLM1, Cellular integrity RPH1, DNA damage RTG3, Amino acid metabolism : Citrate metabolism SKN7, "Stress response (heat shock, oxidative), Osmoregulation" SMP1, Stress response (osmotic) SPT23, Fatty acid metabolism : Response to cold STE12, Pheromone response STP2, tRNA processing : Amino acid permease expression STP4, Uncharacterized SUT1, Sterol synthesis and uptake : Induction of hypoxic gene expression SWI4, Cell division SWI5, Cell cycle SWI6, Cell cycle TEC1, Cell differentiation THI2, Thiamine biosynthesis TOS4, Cell cycle : Pheromone response UME6, Sporulation : Amino acid biosynthesis UPC2, Ergosterol biosynthesis XBP1, Carbohydrate metabolism : Cell cycle YAP1, "Stress response (oxidative, metal ion), Drug response" YAP3, Stress response YAP6, Stress respon se (salt tolerance) YJL206C, Uncharacterized YML081W, Uncharacterized ZAP1, Zinc homeostasis 76 58 ADR1, Carbon compound metabolism : Peroxisome biogenesis AFT2, Iron homeostasis : Stress response (oxidative) ARG80, Amino acid metabolism ARG81, Amino acid metabolism ARR1, Stress response (Arsenic) CAT8, Diauxic shift : Carbon compound metabolism CST6, Carbon catobolism (non-optimal source) CYC8, Stress response: Cell division : Flocculation DAL81, Nitrogen metabolism ECM22, Ergosterol biosynthesis FKH1, Cell cycle : Cell differentiation GAL4, Carbohydrate metabolism GAL80, Carbohydrate metabolism GAT1, Nitrogen metabolism GCR1, Glycolysis GTS1, Ultradian rhythm : Cell size : Sporulation GZF3, Nitrogen metabolism HAC1, Protein folding : Fatty acid biosynthesis HAL9, Salt tolerance HMS2, Cell differentiation IXR1, Oxygen regulation MAC1, Copper and Iron transport MCM1, Cell cycle MET32, Amino acid metabolism MGA1, Cell differentiation MIG2, Glucose metabolism MOT3, Regulation of hypoxic genes : Ergosterol biosynthesis MSN2, "Stress response (heat, oxidative and carbon compound deprivation)" MSN4, "Stress response (heat, oxidative and carbon compound deprivation)" PIP2, Fatty acid metabolism : Peroxisome biogenesis PPR1, Nucleotide biosynthesis PUT3, Proline utilization RCS1, Iron transport : mRNA processing : Vesicle trafficking RDS1, Resistance to cycloheximide RIM101, pH regulation : Cell differentiation RLM1, Cellular integrity RPH1, DNA damage RPN4, Proteasome : Ubiquitin signalling RTG1, Intracellular communication RTG3, Amino acid metabolism : Citrate metabolism SPT23, Fatty acid metabolism : Response to cold STB5, Drug response STE12, Pheromone response STP1, tRNA processing : Amino acid permease expression SUM1, Cell cycle repressor of sporulation genes THI2, Thiamine biosynthesis TOS8, Cell cycle TYE7, Glucose metabolism UGA3, Nitrogen metabolism UPC2, Ergosterol biosynthesis XBP1, Carbohydrate metabolism : Cell cycle YAP3, Stress response YAP5, Stress response YDR266C, Uncharacterized YHP1, Cell cycle YJL206C, Uncharacterized YOX1, Cell cycle YRR1, Drug response 73 52 ACE2, Cytokinesis AFT2, Iron homeostasis : Stress response (oxidative) ARG81, Amino acid metabolism AZF1, Cell division BAS1, Nucleotide biosynthesis CUP9, Copper homeostasis FHL1, Ribosome biogenesis FKH2, Cell cycle : Cell differentiation FZF1, Sulphite metabolism GAL80, Carbohydrate metabolism GLN3, Nitrogen metabolism GTS1, Ultradian rhythm : Cell size : Sporulation GZF3, Nitrogen metabolism HAL9, Salt tolerance HAP1, Osmoregulation HAP4, Electron transport : Ergosterol biosynthesis IXR1, Oxygen regulation LEU3, Amino acid metabolism MAC1, Copper and Iron transport MAL33, Carbohydrate metabolism MET31, Amino acid metabolism MET32, Amino acid metabolism MET4, Amino acid metabolism MIG3, Reistance to hydroxyurea : Carbohydrate metabolism MOT3, Regulation of hypoxic genes : Ergosterol biosynthesis NRG1, Glucose metabolism : Drug response : Cell differentiation PDR1, Drug response PDR3, Drug response PHD1, Cell differentiation PIP2, Fatty acid metabolism : Peroxisome biogenesis PPR1, Nucleotide biosynthesis RAP1, Ribosome biogenesis : Glucose metabolism RLM1, Cellular integrity RME1, Cell division : Cell differentiation ROX1, Electron transport RPH1, DNA damage SFP1, Ribosome biogenesis : Cell division : Cell size SIP4, Gluconeogenesis SMP1, Stress response (osmotic) SOK2, Cell differentiation SUM1, Cell cycle repressor of sporulation genes SUT1, Sterol synthesis and uptake : Induction of hypoxic gene expression SWI5, Cell cycle SWI6, Cell cycle TYE7, Glucose metabolism UGA3, Nitrogen metabolism UPC2, Ergosterol biosynthesis XBP1, Carbohydrate metabolism : Cell cycle YAP6, Stress response (salt tolerance) YML081W, Uncharacterized YRR1, Drug response ZAP1, Zinc homeostasis 73 60 ACE2, Cytokinesis ADR1, Carbon compound metabolism : Peroxisome biogenesis AFT2, Iron homeostasis : Stress response (oxidative) ARG81, Amino acid metabolism ARR1, Stress response (Arsenic) AZF1, Cell division BAS1, Nucleotide biosynthesis CAD1, Stress response (Cadmium) CIN5, Stress response (salt tolerance) : Drug response CYC8, Stress response: Cell division : Flocculation DAL80, Nitrogen metabolism DAL81, Nitrogen metabolism GAL4, Carbohydrate metabolism GLN3, Nitrogen metabolism GZF3, Nitrogen metabolism HAP1, Osmoregulation HAP4, Electron transport : Ergosterol biosynthesis HMLALPHA2, Mating type specificity HMRA1, Mating type specificity HMS2, Cell differentiation HSF1, Stress response (heat shock) INO2, Phospholipid biosynthesis INO4, Fatty acid biosynthesis LEU3, Amino acid metabolism MAC1, Copper and Iron transport MCM1, Cell cycle MIG3, Reistance to hydroxyurea : Carbohydrate metabolism MOT3, Regulation of hypoxic genes : Ergosterol biosynthesis MSN1, Cell differentiation : Stress (osmotic) MSN2, "Stress response (heat, oxidative and carbon compound deprivation)" MSN4, "Stress response (heat, oxidative and carbon compound deprivation)" NRG1, Glucose metabolism : Drug response : Cell differentiation PDC2, Glucose catabolism : Thiamin biosynthesis PHD1, Cell differentiation PUT3, Proline utilization RIM101, pH regulation : Cell differentiation RLM1, Cellular integrity ROX1, Electron transport RPH1, DNA damage RPN4, Proteasome : Ubiquitin signalling RTG3, Amino acid metabolism : Citrate metabolism SIP4, Gluconeogenesis SKN7, "Stress response (heat shock, oxidative), Osmoregulation" SKO1, "Stress response (osmotic, oxidative)" SMP1, Stress response (osmotic) STP1, tRNA processing : Amino acid permease expression STP2, tRNA processing : Amino acid permease expression SUT1, Sterol synthesis and uptake : Induction of hypoxic gene expression SWI6, Cell cycle TEC1, Cell differentiation TOS4, Cell cycle : Pheromone response YAP1, "Stress response (oxidative, metal ion), Drug response" YAP5, Stress respon se YAP6, Stress response (salt tolerance) YAP7, Stress response (salt tolerance) YER108C, Cell differentiation YFL044C, Uncharacterized YJL206C, Uncharacterized YKR064W, Uncharacterized YRR1, Drug response 70 56 AFT2, Iron homeostasis : Stress response (oxidative) ARG81, Amino acid metabolism AZF1, Cell division BAS1, Nucleotide biosynthesis CAD1, Stress response (Cadmium) CAT8, Diauxic shift : Carbon compound metabolism CBF1, Amino acid metabolism : DNA damage : Cell cycle : Stress response : Drug response DAL80, Nitrogen metabolism DAL81, Nitrogen metabolism DAT1, Binds AT rich sequence FKH2, Cell cycle : Cell differentiation GAT1, Nitrogen metabolism GCN4, Amino acid metabolism GCR1, Glycolysis GLN3, Nitrogen metabolism GZF3, Nitrogen metabolism HAL9, Salt tolerance HAP4, Electron transport : Ergosterol biosynthesis HMS1, Cell differentiation HSF1, Stress response (heat shock) INO2, Phospholipid biosynthesis IXR1, Oxygen regulation LEU3, Amino acid metabolism MAC1, Copper and Iron transport MAL33, Carbohydrate metabolism MET28, Amino acid metabolism MET31, Amino acid metabolism MET32, Amino acid metabolism MET4, Amino acid metabolism MOT3, Regulation of hypoxic genes : Ergosterol biosynthesis NRG1, Glucose metabolism : Drug response : Cell differentiation PDC2, Glucose catabolism : Thiamin biosynthesis PHO2, Phosphate metabolism : Nucleotide metabolism : Amino acid metabolism PHO4, Phosphate metabolism PUT3, Proline utilization RIM101, pH regulation : Cell differentiation RLM1, Cellular integrity ROX1, Electron transport RPH1, DNA damage RTG1, Intracellular communication RTG3, Amino acid metabolism : Citrate metabolism SIP4, Gluconeogenesis SMP1, Stress response (osmotic) STB5, Drug response STP1, tRNA processing : Amino acid permease expression SUM1, Cell cycle repressor of sporulation genes SUT1, Sterol synthesis and uptake : Induction of hypoxic gene expression TEC1, Cell differentiation TOS4, Cell cycle : Pheromone response XBP1, Carbohydrate metabolism : Cell cycle YAP1, "Stress response (oxidative, metal ion), Drug response" YAP6, Stress response (salt tolerance) YAP7, Stress response (salt tolerance) YML081W, Uncharacterized YOX1, Cell cycle ZAP1, Zinc homeostasis 67 60 ACE2, Cytokinesis ADR1, Carbon compound metabolism : Peroxisome biogenesis AFT2, Iron homeostasis : Stress response (oxidative) ARG80, Amino acid metabolism ARG81, Amino acid metabolism ARR1, Stress response (Arsenic) AZF1, Cell division BAS1, Nucleotide biosynthesis CAD1, Stress response (Cadmium) CIN5, Stress response (salt tolerance) : Drug response CST6, Carbon catobolism (non-optimal source) DAL80, Nitrogen metabolism DAL81, Nitrogen metabolism DAT1, Binds AT rich sequence GAL4, Carbohydrate metabolism GCR1, Glycolysis GLN3, Nitrogen metabolism GTS1, Ultradian rhythm : Cell size : Sporulation GZF3, Nitrogen metabolism HAL9, Salt tolerance HAP4, Electron transport : Ergosterol biosynthesis INO2, Phospholipid biosynthesis INO4, Fatty acid biosynthesis IXR1, Oxygen regulation MAC1, Copper and Iron transport MAL33, Carbohydrate metabolism MCM1, Cell cycle MET31, Amino acid metabolism MGA1, Cell differentiation MIG2, Glucose metabolism MOT3, Regulation of hypoxic genes : Ergosterol biosynthesis MSN2, "Stress response (heat, oxidative and carbon compound deprivation)" MSN4, "Stress response (heat, oxidative and carbon compound deprivation)" MSS11, Cell differentiation : Starch catabolism NDT80, Sporulation NRG1, Glucose metabolism : Drug response : Cell differentiation PDR1, Drug response PHO2, Phosphate metabolism : Nucleotide metabolism : Amino acid metabolism PHO4, Phosphate metabolism PUT3, Proline utilization RCS1, Iron transport : mRNA processing : Vesicle trafficking RDS1, Resistance to cycloheximide RIM101, pH regulation : Cell differentiation RLM1, Cellular integrity ROX1, Electron transport RPH1, DNA damage RTG1, Intracellular communication RTG3, Amino acid metabolism : Citrate metabolism SRD1, rRNA processing STB5, Drug response STP1, tRNA processing : Amino acid permease expression SUM1, Cell cycle repressor of sporulation genes SUT1, Sterol synthesis and uptake : Induction of hypoxic gene expression UGA3, Nitrogen metabolism XBP1, Carbohydrate metabolism : Cell cycle YAP1, "Stress response (ox idative, metal ion), Drug response" YAP3, Stress response YAP6, Stress response (salt tolerance) YAP7, Stress response (salt tolerance) YJL206C, Uncharacterized 61 51 ACE2, Cytokinesis ARG81, Amino acid metabolism ARR1, Stress response (Arsenic) ASH1, Homothallic switching AZF1, Cell division CYC8, Stress response: Cell division : Flocculation DAL80, Nitrogen metabolism DAT1, Binds AT rich sequence GLN3, Nitrogen metabolism GZF3, Nitrogen metabolism HAL9, Salt tolerance HAP4, Electron transport : Ergosterol biosynthesis HMS1, Cell differentiation IXR1, Oxygen regulation LEU3, Amino acid metabolism MAC1, Copper and Iron transport MAL33, Carbohydrate metabolism MET31, Amino acid metabolism MGA1, Cell differentiation MIG2, Glucose metabolism MOT3, Regulation of hypoxic genes : Ergosterol biosynthesis MSN2, "Stress response (heat, oxidative and carbon compound deprivation)" MSN4, "Stress response (heat, oxidative and carbon compound deprivation)" NDT80, Sporulation NRG1, Glucose metabolism : Drug response : Cell differentiation PDR1, Drug response PHO2, Phosphate metabolism : Nucleotide metabolism : Amino acid metabolism RIM101, pH regulation : Cell differentiation RLM1, Cellular integrity ROX1, Electron transport RPN4, Proteasome : Ubiquitin signalling RTG1, Intracellular communication RTG3, Amino acid metabolism : Citrate metabolism SIP4, Gluconeogenesis SKN7, "Stress response (heat shock, oxidative), Osmoregulation" SMP1, Stress response (osmotic) SPT23, Fatty acid metabolism : Response to cold STP1, tRNA processing : Amino acid permease expression SUM1, Cell cycle repressor of sporulation genes SUT1, Sterol synthesis and uptake : Induction of hypoxic gene expression TEC1, Cell differentiation THI2, Thiamine biosynthesis TYE7, Glucose metabolism UGA3, Nitrogen metabolism WAR1, Stress response (weak acid) YAP1, "Stress response (oxidative, metal ion), Drug response" YAP3, Stress response YAP6, Stress response (salt tolerance) YAP7, Stress response (salt tolerance) YJL206C, Uncharacterized ZAP1, Zinc homeostasis 59 54 ADR1, Carbon compound metabolism : Peroxisome biogenesis ARG81, Amino acid metabolism ARR1, Stress response (Arsenic) BAS1, Nucleotide biosynthesis CST6, Carbon catobolism (non-optimal source) DAL80, Nitrogen metabolism FKH1, Cell cycle : Cell differentiation GAT1, Nitrogen metabolism GLN3, Nitrogen metabolism GTS1, Ultradian rhythm : Cell size : Sporulation GZF3, Nitrogen metabolism HAL9, Salt tolerance HAP1, Osmoregulation HMLALPHA1, Mating type specificity HMRA1, Mating type specificity HMS2, Cell differentiation MAL13, Carbohydrate metabolism MAL33, Carbohydrate metabolism MCM1, Cell cycle MET28, Amino acid metabolism MET32, Amino acid metabolism MGA1, Cell differentiation MSN2, "Stress response (heat, oxidative and carbon compound deprivation)" MSN4, "Stress response (heat, oxidative and carbon compound deprivation)" PDR3, Drug response PHO2, Phosphate metabolism : Nucleotide metabolism : Amino acid metabolism PLM2, Partitioning of plasmid PPR1, Nucleotide biosynthesis PUT3, Proline utilization RCS1, Iron transport : mRNA processing : Vesicle trafficking RDS1, Resistance to cycloheximide REB1, Cell division : rRNA biosynthesis RIM101, pH regulation : Cell differentiation RPH1, DNA damage RTG1, Intracellular communication RTG3, Amino acid metabolism : Citrate metabolism SRD1, rRNA processing STB5, Drug response STP1, tRNA processing : Amino acid permease expression SUM1, Cell cycle repressor of sporulation genes TEC1, Cell differentiation THI2, Thiamine biosynthesis TOS4, Cell cycle : Pheromone response TYE7, Glucose metabolism UGA3, Nitrogen metabolism UPC2, Ergosterol biosynthesis YAP3, Stress response YAP5, Stress response YDR026C, Uncharacterized YDR266C, Uncharacterized YER130C, Uncharacterized YHP1, Cell cycle YJL206C, Uncharacterized YRR1, Drug response 58 55 ACE2, Cytokinesis AFT2, Iron homeostasis : Stress response (oxidative) ARG81, Amino acid metabolism ARO80, Amino acid metabolism ARR1, Stress response (Arsenic) BAS1, Nucleotide biosynthesis CAD1, Stress response (Cadmium) CST6, Carbon catobolism (non-optimal source) CUP9, Copper homeostasis FZF1, Sulphite metabolism GAL4, Carbohydrate metabolism GAL80, Carbohydrate metabolism GCR1, Glycolysis GLN3, Nitrogen metabolism GZF3, Nitrogen metabolism HMRA1, Mating type specificity HSF1, Stress response (heat shock) INO4, Fatty acid biosynthesis IXR1, Oxygen regulation MAC1, Copper and Iron transport MAL33, Carbohydrate metabolism MCM1, Cell cycle MET31, Amino acid metabolism MET32, Amino acid metabolism MIG2, Glucose metabolism MOT3, Regulation of hypoxic genes : Ergosterol biosynthesis MSN2, "Stress response (heat, oxidative and carbon compound deprivation)" MSN4, "Stress response (heat, oxidative and carbon compound deprivation)" NDT80, Sporulation NRG1, Glucose metabolism : Drug response : Cell differentiation PDR1, Drug response PHO2, Phosphate metabolism : Nucleotide metabolism : Amino acid metabolism PHO4, Phosphate metabolism PLM2, Partitioning of plasmid RCS1, Iron transport : mRNA processing : Vesicle trafficking RDS1, Resistance to cycloheximide RLM1, Cellular integrity RME1, Cell division : Cell differentiation RPH1, DNA damage RTG1, Intracellular communication RTG3, Amino acid metabolism : Citrate metabolism SFP1, Ribosome biogenesis : Cell division : Cell size SMP1, Stress response (osmotic) SRD1, rRNA processing STP1, tRNA processing : Amino acid permease expression SUT1, Sterol synthesis and uptake : Induction of hypoxic gene expression TEC1, Cell differentiation THI2, Thiamine biosynthesis TOS8, Cell cycle UGA3, Nitrogen metabolism YAP1, "Stress response (oxidative, metal ion), Drug response" YAP5, Stress response YFL044C, Uncharacterized YJL206C, Uncharacterized YOX1, Cell cycle 48 47 ACE2, Cytokinesis AFT2, Iron homeostasis : Stress response (oxidative) ARG81, Amino acid metabolism AZF1, Cell division CAD1, Stress response (Cadmium) CST6, Carbon catobolism (non-optimal source) CUP2, Copper resistance CYC8, Stress response: Cell division : Flocculation DAL81, Nitrogen metabolism GLN3, Nitrogen metabolism GZF3, Nitrogen metabolism HAP1, Osmoregulation HMS2, Cell differentiation HSF1, Stress response (heat shock) MAC1, Copper and Iron transport MAL33, Carbohydrate metabolism MBP1, Cell cycle MCM1, Cell cycle MET31, Amino acid metabolism MIG1, Glucose metabolism MIG2, Glucose metabolism MIG3, Reistance to hydroxyurea : Carbohydrate metabolism MOT3, Regulation of hypoxic genes : Ergosterol biosynthesis MSN2, "Stress response (heat, oxidative and carbon compound deprivation)" MSN4, "Stress response (heat, oxidative and carbon compound deprivation)" NRG1, Glucose metabolism : Drug response : Cell differentiation PDR3, Drug response PUT3, Proline utilization RGT1, Glucose metabolism RIM101, pH regulation : Cell differentiation RLM1, Cellular integrity RPH1, DNA damage RPN4, Proteasome : Ubiquitin signalling SIP4, Gluconeogenesis SKN7, "Stress response (heat shock, oxidative), Osmoregulation" SKO1, "Stress response (osmotic, oxidative)" STE12, Pheromone response STP4, Uncharacterized SUT1, Sterol synthesis and uptake : Induction of hypoxic gene expression SWI5, Cell cycle SWI6, Cell cycle UGA3, Nitrogen metabolism XBP1, Carbohydrate metabolism : Cell cycle YAP1, "Stress response (oxidative, metal ion), Drug response" YAP3, Stress response YAP6, Stress response (salt tolerance) YAP7, Stress response (salt tolerance) 43 49 ACE2, Cytokinesis ADR1, Carbon compound metabolism : Peroxisome biogenesis AFT2, Iron homeostasis : Stress response (oxidative) ARG81, Amino acid metabolism AZF1, Cell division BAS1, Nucleotide biosynthesis CAD1, Stress response (Cadmium) DAL80, Nitrogen metabolism DAL81, Nitrogen metabolism FKH2, Cell cycle : Cell differentiation GLN3, Nitrogen metabolism GZF3, Nitrogen metabolism HAL9, Salt tolerance HAP4, Electron transport : Ergosterol biosynthesis HSF1, Stress response (heat shock) IXR1, Oxygen regulation MAC1, Copper and Iron transport MAL33, Carbohydrate metabolism MBP1, Cell cycle MET31, Amino acid metabolism MET4, Amino acid metabolism MOT3, Regulation of hypoxic genes : Ergosterol biosynthesis MSN2, "Stress response (heat, oxidative and carbon compound deprivation)" PDR1, Drug response PHD1, Cell differentiation RIM101, pH regulation : Cell differentiation RLM1, Cellular integrity RME1, Cell division : Cell differentiation ROX1, Electron transport RPH1, DNA damage RTG1, Intracellular communication RTG3, Amino acid metabolism : Citrate metabolism SFP1, Ribosome biogenesis : Cell division : Cell size SIP4, Gluconeogenesis SKN7, "Stress response (heat shock, oxidative), Osmoregulation" SMP1, Stress response (osmotic) STP1, tRNA processing : Amino acid permease expression SUM1, Cell cycle repressor of sporulation genes SUT1, Sterol synthesis and uptake : Induction of hypoxic gene expression SWI4, Cell division SWI6, Cell cycle TOS4, Cell cycle : Pheromone response UGA3, Nitrogen metabolism WAR1, Stress response (weak acid) XBP1, Carbohydrate metabolism : Cell cycle YAP1, "Stress response (oxidative, metal ion), Drug response" YAP3, Stress response YJL206C, Uncharacterized ZAP1, Zinc homeostasis 43 56 ACE2, Cytokinesis ADR1, Carbon compound metabolism : Peroxisome biogenesis ARG80, Amino acid metabolism ARG81, Amino acid metabolism ARO80, Amino acid metabolism ARR1, Stress response (Arsenic) CAD1, Stress response (Cadmium) CAT8, Diauxic shift : Carbon compound metabolism CHA4, Amino acid metabolism CYC8, Stress response: Cell division : Flocculation DAL80, Nitrogen metabolism DAT1, Binds AT rich sequence FZF1, Sulphite metabolism GAL4, Carbohydrate metabolism GAT3, Binds to sub-telomreic regions GCR1, Glycolysis GZF3, Nitrogen metabolism HAL9, Salt tolerance HAP4, Electron transport : Ergosterol biosynthesis HMLALPHA2, Mating type specificity HMRA1, Mating type specificity HMRA2, Mating type specificity HMS2, Cell differentiation INO4, Fatty acid biosynthesis MATALPHA1, Mating type specificity MET31, Amino acid metabolism MET32, Amino acid metabolism MSN4, "Stress response (heat, oxidative and carbon compound deprivation)" NRG1, Glucose metabolism : Drug response : Cell differentiation PDR1, Drug response PHD1, Cell differentiation PPR1, Nucleotide biosynthesis RAP1, Ribosome biogenesis : Glucose metabolism RDS1, Resistance to cycloheximide RPH1, DNA damage RPN4, Proteasome : Ubiquitin signalling SKO1, "Stress response (osmotic, oxidative)" SMP1, Stress response (osmotic) SPT23, Fatty acid metabolism : Response to cold STP1, tRNA processing : Amino acid permease expression STP2, tRNA processing : Amino acid permease expression SUM1, Cell cycle repressor of sporulation genes SWI5, Cell cycle TOS4, Cell cycle : Pheromone response TOS8, Cell cycle UGA3, Nitrogen metabolism UME6, Sporulation : Amino acid biosynthesis UPC2, Ergosterol biosynthesis XBP1, Carbohydrate metabolism : Cell cycle YAP3, Stress response YAP5, Stress response YER108C, Cell differentiation YFL044C, Uncharacterized YHP1, Cell cycle YJL206C, Uncharacterized ZAP1, Zinc homeostasis 34 45 ARG81, Amino acid metabolism ARO80, Amino acid metabolism ASH1, Homothallic switching AZF1, Cell division CAT8, Diauxic shift : Carbon compound metabolism CHA4, Amino acid metabolism CIN5, Stress response (salt tolerance) : Drug response DAL81, Nitrogen metabolism DAT1, Binds AT rich sequence FKH1, Cell cycle : Cell differentiation FKH2, Cell cycle : Cell differentiation GAT1, Nitrogen metabolism GCR1, Glycolysis GLN3, Nitrogen metabolism GZF3, Nitrogen metabolism HAL9, Salt tolerance HAP1, Osmoregulation HAP4, Electron transport : Ergosterol biosynthesis HMS1, Cell differentiation INO2, Phospholipid biosynthesis IXR1, Oxygen regulation LEU3, Amino acid metabolism MET31, Amino acid metabolism MET4, Amino acid metabolism MOT3, Regulation of hypoxic genes : Ergosterol biosynthesis MSN4, "Stress response (heat, oxidative and carbon compound deprivation)" NRG1, Glucose metabolism : Drug response : Cell differentiation PHO2, Phosphate metabolism : Nucleotide metabolism : Amino acid metabolism PUT3, Proline utilization RGT1, Glucose metabolism RIM101, pH regulation : Cell differentiation RLM1, Cellular integrity ROX1, Electron transport RTG3, Amino acid metabolism : Citrate metabolism SIP4, Gluconeogenesis SKN7, "Stress response (heat shock, oxidative), Osmoregulation" SKO1, "Stress response (osmotic, oxidative)" STP1, tRNA processing : Amino acid permease expression SUT1, Sterol synthesis and uptake : Induction of hypoxic gene expression SWI5, Cell cycle TEC1, Cell differentiation TYE7, Glucose metabolism XBP1, Carbohydrate metabolism : Cell cycle YAP6, Stress response (salt tolerance) ZAP1, Zinc homeostasis 33 31 CUP9, Copper homeostasis FKH1, Cell cycle : Cell differentiation GAL80, Carbohydrate metabolism GCR1, Glycolysis GTS1, Ultradian rhythm : Cell size : Sporulation HMS2, Cell differentiation IXR1, Oxygen regulation LEU3, Amino acid metabolism MAC1, Copper and Iron transport MCM1, Cell cycle MET32, Amino acid metabolism MGA1, Cell differentiation MIG2, Glucose metabolism MOT3, Regulation of hypoxic genes : Ergosterol biosynthesis NRG1, Glucose metabolism : Drug response : Cell differentiation PIP2, Fatty acid metabolism : Peroxisome biogenesis REB1, Cell division : rRNA biosynthesis RGT1, Glucose metabolism RLM1, Cellular integrity RME1, Cell division : Cell differentiation RPH1, DNA damage RTG1, Intracellular communication RTG3, Amino acid metabolism : Citrate metabolism SFP1, Ribosome biogenesis : Cell division : Cell size STB5, Drug response STE12, Pheromone response SUM1, Cell cycle repressor of sporulation genes UPC2, Ergosterol biosynthesis YAP3, Stress response YER130C, Uncharacterized YRR1, Drug response 33 37 ARO80, Amino acid metabolism CAT8, Diauxic shift : Carbon compound metabolism CST6, Carbon catobolism (non-optimal source) CUP9, Copper homeostasis FKH1, Cell cycle : Cell differentiation GAL4, Carbohydrate metabolism GAL80, Carbohydrate metabolism GCR1, Glycolysis GZF3, Nitrogen metabolism HSF1, Stress response (heat shock) INO4, Fatty acid biosynthesis IXR1, Oxygen regulation MAL33, Carbohydrate metabolism MET28, Amino acid metabolism MET32, Amino acid metabolism MIG1, Glucose metabolism MIG2, Glucose metabolism MIG3, Reistance to hydroxyurea : Carbohydrate metabolism MOT3, Regulation of hypoxic genes : Ergosterol biosynthesis NRG1, Glucose metabolism : Drug response : Cell differentiation OAF1, Fatty acid metabolism : Peroxisome biogenesis PDR3, Drug response PIP2, Fatty acid metabolism : Peroxisome biogenesis RDS1, Resistance to cycloheximide REB1, Cell division : rRNA biosynthesis RIM101, pH regulation : Cell differentiation RLM1, Cellular integrity ROX1, Electron transport SIP4, Gluconeogenesis SKO1, "Stress response (osmotic, oxidative)" SOK2, Cell differentiation STP4, Uncharacterized UGA3, Nitrogen metabolism XBP1, Carbohydrate metabolism : Cell cycle YAP3, Stress response YAP6, Stress response (salt tolerance) YRR1, Drug response 30 33 ADR1, Carbon compound metabolism : Peroxisome biogenesis ARG80, Amino acid metabolism GAL4, Carbohydrate metabolism GAL80, Carbohydrate metabolism GTS1, Ultradian rhythm : Cell size : Sporulation GZF3, Nitrogen metabolism HMS2, Cell differentiation MAL33, Carbohydrate metabolism MBP1, Cell cycle MET28, Amino acid metabolism MET32, Amino acid metabolism MIG2, Glucose metabolism NDT80, Sporulation OAF1, Fatty acid metabolism : Peroxisome biogenesis PHO2, Phosphate metabolism : Nucleotide metabolism : Amino acid metabolism PIP2, Fatty acid metabolism : Peroxisome biogenesis PLM2, Partitioning of plasmid PPR1, Nucleotide biosynthesis RIM101, pH regulation : Cell differentiation SPT23, Fatty acid metabolism : Response to cold STE12, Pheromone response STP1, tRNA processing : Amino acid permease expression STP2, tRNA processing : Amino acid permease expression THI2, Thiamine biosynthesis TOS4, Cell cycle : Pheromone response TOS8, Cell cycle TYE7, Glucose metabolism UPC2, Ergosterol biosynthesis YAP3, Stress response YER130C, Uncharacterized YHP1, Cell cycle YOX1, Cell cycle YRR1, Drug response 26 33 AZF1, Cell division BAS1, Nucleotide biosynthesis FHL1, Ribosome biogenesis FZF1, Sulphite metabolism GAL80, Carbohydrate metabolism GCR1, Glycolysis GLN3, Nitrogen metabolism GTS1, Ultradian rhythm : Cell size : Sporulation HAC1, Protein folding : Fatty acid biosynthesis HAP4, Electron transport : Ergosterol biosynthesis IXR1, Oxygen regulation LEU3, Amino acid metabolism MAC1, Copper and Iron transport MATALPHA1, Mating type specificity MET28, Amino acid metabolism MET31, Amino acid metabolism MET32, Amino acid metabolism MET4, Amino acid metabolism MOT3, Regulation of hypoxic genes : Ergosterol biosynthesis PIP2, Fatty acid metabolism : Peroxisome biogenesis RAP1, Ribosome biogenesis : Glucose metabolism RLM1, Cellular integrity RME1, Cell division : Cell differentiation ROX1, Electron transport RPH1, DNA damage RTG1, Intracellular communication SFP1, Ribosome biogenesis : Cell division : Cell size SMP1, Stress response (osmotic) SUM1, Cell cycle repressor of sporulation genes UPC2, Ergosterol biosynthesis YAP1, "Stress response (oxidative, metal ion), Drug response" YAP6, Stress response (salt tolerance) YRR1, Drug response 26 42 ADR1, Carbon compound metabolism : Peroxisome biogenesis AFT2, Iron homeostasis : Stress response (oxidative) ARG81, Amino acid metabolism AZF1, Cell division DAL80, Nitrogen metabolism DAL81, Nitrogen metabolism GCR1, Glycolysis GLN3, Nitrogen metabolism GZF3, Nitrogen metabolism HAL9, Salt tolerance HAP1, Osmoregulation HAP4, Electron transport : Ergosterol biosynthesis HCM1, Cell cycle HMS1, Cell differentiation IXR1, Oxygen regulation LEU3, Amino acid metabolism MET28, Amino acid metabolism MET31, Amino acid metabolism MET32, Amino acid metabolism MET4, Amino acid metabolism MIG2, Glucose metabolism MSN2, "Stress response (heat, oxidative and carbon compound deprivation)" MSN4, "Stress response (heat, oxidative and carbon compound deprivation)" RLM1, Cellular integrity ROX1, Electron transport RPN4, Proteasome : Ubiquitin signalling RTG1, Intracellular communication SKO1, "Stress response (osmotic, oxidative)" SMP1, Stress response (osmotic) SOK2, Cell differentiation SPT23, Fatty acid metabolism : Response to cold STP1, tRNA processing : Amino acid permease expression STP4, Uncharacterized SUM1, Cell cycle repressor of sporulation genes TOS8, Cell cycle XBP1, Carbohydrate metabolism : Cell cycle YAP3, Stress response YAP6, Stress response (salt tolerance) YJL206C, Uncharacterized YML081W, Uncharacterized YOX1, Cell cycle YRR1, Drug response 25 45 ACE2, Cytokinesis AFT2, Iron homeostasis : Stress response (oxidative) ASH1, Homothallic switching BAS1, Nucleotide biosynthesis CUP9, Copper homeostasis DAL80, Nitrogen metabolism DAL81, Nitrogen metabolism FKH2, Cell cycle : Cell differentiation GLN3, Nitrogen metabolism HAL9, Salt tolerance HMS1, Cell differentiation HSF1, Stress response (heat shock) LEU3, Amino acid metabolism MAL33, Carbohydrate metabolism MBP1, Cell cycle MCM1, Cell cycle MET31, Amino acid metabolism MET32, Amino acid metabolism MOT3, Regulation of hypoxic genes : Ergosterol biosynthesis MSN1, Cell differentiation : Stress (osmotic) MSS11, Cell differentiation : Starch catabolism NRG1, Glucose metabolism : Drug response : Cell differentiation PDC2, Glucose catabolism : Thiamin biosynthesis PHO2, Phosphate metabolism : Nucleotide metabolism : Amino acid metabolism PHO4, Phosphate metabolism PUT3, Proline utilization RAP1, Ribosome biogenesis : Glucose metabolism RIM101, pH regulation : Cell differentiation ROX1, Electron transport RPH1, DNA damage RTG1, Intracellular communication RTG3, Amino acid metabolism : Citrate metabolism SIP4, Gluconeogenesis SKN7, "Stress response (heat shock, oxidative), Osmoregulation" SKO1, "Stress response (osmotic, oxidative)" SWI4, Cell division SWI5, Cell cycle SWI6, Cell cycle TEC1, Cell differentiation TYE7, Glucose metabolism XBP1, Carbohydrate metabolism : Cell cycle YAP1, "Stress response (oxidative, metal ion), Drug response" YAP3, Stress response YOX1, Cell cycle ZAP1, Zinc homeostasis 23 31 CAD1, Stress response (Cadmium) CUP2, Copper resistance DAT1, Binds AT rich sequence ECM22, Ergosterol biosynthesis GAT3, Binds to sub-telomreic regions GZF3, Nitrogen metabolism HAC1, Protein folding : Fatty acid biosynthesis HAL9, Salt tolerance HCM1, Cell cycle HMS2, Cell differentiation MET28, Amino acid metabolism MET32, Amino acid metabolism PDR1, Drug response PLM2, Partitioning of plasmid PPR1, Nucleotide biosynthesis RGM1, Overexpression limits cell growth SOK2, Cell differentiation THI2, Thiamine biosynthesis TOS8, Cell cycle UGA3, Nitrogen metabolism YAP3, Stress response YAP5, Stress response YBR033W, Uncharacterized YDR026C, Uncharacterized YDR520C, Uncharacterized YER130C, Uncharacterized YFL044C, Uncharacterized YHP1, Cell cycle YOX1, Cell cycle YPL230W, Uncharacterized YRR1, Drug response 21 29 AFT2, Iron homeostasis : Stress response (oxidative) ARG81, Amino acid metabolism CAD1, Stress response (Cadmium) CIN5, Stress response (salt tolerance) : Drug response DAL81, Nitrogen metabolism GLN3, Nitrogen metabolism HAL9, Salt tolerance HSF1, Stress response (heat shock) MET31, Amino acid metabolism MIG3, Reistance to hydroxyurea : Carbohydrate metabolism MSN2, "Stress response (heat, oxidative and carbon compound deprivation)" MSN4, "Stress response (heat, oxidative and carbon compound deprivation)" PDC2, Glucose catabolism : Thiamin biosynthesis PUT3, Proline utilization RIM101, pH regulation : Cell differentiation ROX1, Electron transport RPH1, DNA damage RTG1, Intracellular communication RTG3, Amino acid metabolism : Citrate metabolism SKN7, "Stress response (heat shock, oxidative), Osmoregulation" SKO1, "Stress response (osmotic, oxidative)" STP1, tRNA processing : Amino acid permease expression THI2, Thiamine biosynthesis XBP1, Carbohydrate metabolism : Cell cycle YAP1, "Stress response (oxidative, metal ion), Drug response" YAP6, Stress response (salt tolerance) YAP7, Stress response (salt tolerance) YDR026C, Uncharacterized YML081W, Uncharacterized 19 36 AZF1, Cell division CBF1, Amino acid metabolism : DNA damage : Cell cycle : Stress response : Drug response CHA4, Amino acid metabolism CST6, Carbon catobolism (non-optimal source) DAL81, Nitrogen metabolism FKH1, Cell cycle : Cell differentiation GAL80, Carbohydrate metabolism GCR1, Glycolysis GLN3, Nitrogen metabolism GZF3, Nitrogen metabolism HAC1, Protein folding : Fatty acid biosynthesis HAP1, Osmoregulation HAP4, Electron transport : Ergosterol biosynthesis HMS2, Cell differentiation INO4, Fatty acid biosynthesis LEU3, Amino acid metabolism MET28, Amino acid metabolism MET32, Amino acid metabolism MET4, Amino acid metabolism MIG2, Glucose metabolism MIG3, Reistance to hydroxyurea : Carbohydrate metabolism PHO2, Phosphate metabolism : Nucleotide metabolism : Amino acid metabolism PHO4, Phosphate metabolism STE12, Pheromone response STP4, Uncharacterized TEC1, Cell differentiation TOS8, Cell cycle UGA3, Nitrogen metabolism WAR1, Stress response (weak acid) XBP1, Carbohydrate metabolism : Cell cycle YAP3, Stress response YDR026C, Uncharacterized YER130C, Uncharacterized YHP1, Cell cycle YRR1, Drug response ZAP1, Zinc homeostasis 18 33 ACE2, Cytokinesis AFT2, Iron homeostasis : Stress response (oxidative) ARG81, Amino acid metabolism AZF1, Cell division CAD1, Stress response (Cadmium) DAL80, Nitrogen metabolism DAL81, Nitrogen metabolism GCR1, Glycolysis GLN3, Nitrogen metabolism GZF3, Nitrogen metabolism HAP1, Osmoregulation HSF1, Stress response (heat shock) INO4, Fatty acid biosynthesis IXR1, Oxygen regulation MAC1, Copper and Iron transport MAL33, Carbohydrate metabolism MET31, Amino acid metabolism MGA1, Cell differentiation MOT3, Regulation of hypoxic genes : Ergosterol biosynthesis MSN2, "Stress response (heat, oxidative and carbon compound deprivation)" MSN4, "Stress response (heat, oxidative and carbon compound deprivation)" RIM101, pH regulation : Cell differentiation ROX1, Electron transport RPN4, Proteasome : Ubiquitin signalling RTG1, Intracellular communication SKO1, "Stress response (osmotic, oxidative)" SMP1, Stress response (osmotic) SWI6, Cell cycle XBP1, Carbohydrate metabolism : Cell cycle YAP3, Stress response YAP6, Stress response (salt tolerance) YAP7, Stress response (salt tolerance) ZAP1, Zinc homeostasis 16 22 ADR1, Carbon compound metabolism : Peroxisome biogenesis CST6, Carbon catobolism (non-optimal source) GAL80, Carbohydrate metabolism HAC1, Protein folding : Fatty acid biosynthesis HMS2, Cell differentiation LEU3, Amino acid metabolism MOT3, Regulation of hypoxic genes : Ergosterol biosynthesis PIP2, Fatty acid metabolism : Peroxisome biogenesis PLM2, Partitioning of plasmid PUT3, Proline utilization STB5, Drug response STE12, Pheromone response SWI5, Cell cycle TOS8, Cell cycle TYE7, Glucose metabolism UPC2, Ergosterol biosynthesis YAP3, Stress response YAP5, Stress response YDR049W, Uncharacterized YDR266C, Uncharacterized YER130C, Uncharacterized YRR1, Drug response 16 28 ACE2, Cytokinesis ARG81, Amino acid metabolism ARR1, Stress response (Arsenic) AZF1, Cell division DAL80, Nitrogen metabolism DAT1, Binds AT rich sequence GLN3, Nitrogen metabolism HAP4, Electron transport : Ergosterol biosynthesis HMS1, Cell differentiation LEU3, Amino acid metabolism MET28, Amino acid metabolism MET31, Amino acid metabolism MET32, Amino acid metabolism MET4, Amino acid metabolism MOT3, Regulation of hypoxic genes : Ergosterol biosynthesis RLM1, Cellular integrity ROX1, Electron transport SIP4, Gluconeogenesis SMP1, Stress response (osmotic) STP1, tRNA processing : Amino acid permease expression SUM1, Cell cycle repressor of sporulation genes SWI6, Cell cycle TOS4, Cell cycle : Pheromone response TYE7, Glucose metabolism UGA3, Nitrogen metabolism XBP1, Carbohydrate metabolism : Cell cycle YER184C, Uncharacterized ZAP1, Zinc homeostasis 16 31 ARG81, Amino acid metabolism ARO80, Amino acid metabolism ASH1, Homothallic switching AZF1, Cell division CAD1, Stress response (Cadmium) CBF1, Amino acid metabolism : DNA damage : Cell cycle : Stress response : Drug response CUP2, Copper resistance DAL81, Nitrogen metabolism GCR1, Glycolysis GLN3, Nitrogen metabolism GZF3, Nitrogen metabolism HAP1, Osmoregulation HAP4, Electron transport : Ergosterol biosynthesis HCM1, Cell cycle INO2, Phospholipid biosynthesis INO4, Fatty acid biosynthesis LEU3, Amino acid metabolism MIG2, Glucose metabolism PHO2, Phosphate metabolism : Nucleotide metabolism : Amino acid metabolism PUT3, Proline utilization RIM101, pH regulation : Cell differentiation RLM1, Cellular integrity SKO1, "Stress response (osmotic, oxidative)" SOK2, Cell differentiation THI2, Thiamine biosynthesis UME6, Sporulation : Amino acid biosynthesis YAP6, Stress response (salt tolerance) YAP7, Stress response (salt tolerance) YJL206C, Uncharacterized YML081W, Uncharacterized YRR1, Drug response 15 25 ACE2, Cytokinesis ARR1, Stress response (Arsenic) AZF1, Cell division CAD1, Stress response (Cadmium) CYC8, Stress response: Cell division : Flocculation GLN3, Nitrogen metabolism GZF3, Nitrogen metabolism HAP1, Osmoregulation HAP4, Electron transport : Ergosterol biosynthesis HSF1, Stress response (heat shock) MAC1, Copper and Iron transport MGA1, Cell differentiation MSN2, "Stress response (heat, oxidative and carbon compound deprivation)" MSN4, "Stress response (heat, oxidative and carbon compound deprivation)" PUT3, Proline utilization RPH1, DNA damage RTG1, Intracellular communication SIP4, Gluconeogenesis SKN7, "Stress response (heat shock, oxidative), Osmoregulation" SKO1, "Stress response (osmotic, oxidative)" STP1, tRNA processing : Amino acid permease expression UGA3, Nitrogen metabolism YAP1, "Stress response (oxidative, metal ion), Drug response" YAP6, Stress response (salt tolerance) YJL206C, Uncharacterized 15 34 ACE2, Cytokinesis ASH1, Homothallic switching CAD1, Stress response (Cadmium) CIN5, Stress response (salt tolerance) : Drug response DAL81, Nitrogen metabolism FKH2, Cell cycle : Cell differentiation FZF1, Sulphite metabolism GLN3, Nitrogen metabolism HAP1, Osmoregulation HMRA1, Mating type specificity HMS2, Cell differentiation HSF1, Stress response (heat shock) MCM1, Cell cycle MET28, Amino acid metabolism MET31, Amino acid metabolism MOT3, Regulation of hypoxic genes : Ergosterol biosynthesis MSN1, Cell differentiation : Stress (osmotic) MSN2, "Stress response (heat, oxidative and carbon compound deprivation)" MSN4, "Stress response (heat, oxidative and carbon compound deprivation)" NRG1, Glucose metabolism : Drug response : Cell differentiation PIP2, Fatty acid metabolism : Peroxisome biogenesis RIM101, pH regulation : Cell differentiation RLM1, Cellular integrity RPH1, DNA damage SKN7, "Stress response (heat shock, oxidative), Osmoregulation" SKO1, "Stress response (osmotic, oxidative)" STP1, tRNA processing : Amino acid permease expression SWI4, Cell division SWI6, Cell cycle TYE7, Glucose metabolism UGA3, Nitrogen metabolism XBP1, Carbohydrate metabolism : Cell cycle YAP1, "Stress response (oxidative, metal ion), Drug response" YJL206C, Uncharacterized 14 19 ARO80, Amino acid metabolism ASH1, Homothallic switching AZF1, Cell division CAT8, Diauxic shift : Carbon compound metabolism CIN5, Stress response (salt tolerance) : Drug response CUP9, Copper homeostasis FKH1, Cell cycle : Cell differentiation GCR1, Glycolysis INO2, Phospholipid biosynthesis INO4, Fatty acid biosynthesis IXR1, Oxygen regulation MIG1, Glucose metabolism MIG2, Glucose metabolism MOT3, Regulation of hypoxic genes : Ergosterol biosynthesis PHD1, Cell differentiation REB1, Cell division : rRNA biosynthesis RGT1, Glucose metabolism SOK2, Cell differentiation SUT1, Sterol synthesis and uptake : Induction of hypoxic gene expression 13 19 ADR1, Carbon compound metabolism : Peroxisome biogenesis DAT1, Binds AT rich sequence FKH2, Cell cycle : Cell differentiation GCR1, Glycolysis HAL9, Salt tolerance HAP4, Electron transport : Ergosterol biosynthesis HMS1, Cell differentiation HMS2, Cell differentiation MAL33, Carbohydrate metabolism MET32, Amino acid metabolism NDT80, Sporulation RPN4, Proteasome : Ubiquitin signalling STP1, tRNA processing : Amino acid permease expression THI2, Thiamine biosynthesis TYE7, Glucose metabolism YAP3, Stress response YAP7, Stress response (salt tolerance) YFL044C, Uncharacterized YOX1, Cell cycle 13 30 AFT2, Iron homeostasis : Stress response (oxidative) ARG81, Amino acid metabolism ARR1, Stress response (Arsenic) CST6, Carbon catobolism (non-optimal source) DAL80, Nitrogen metabolism GAT1, Nitrogen metabolism GCR1, Glycolysis GLN3, Nitrogen metabolism GZF3, Nitrogen metabolism MAL33, Carbohydrate metabolism MGA1, Cell differentiation MSN4, "Stress response (heat, oxidative and carbon compound deprivation)" MSS11, Cell differentiation : Starch catabolism PDC2, Glucose catabolism : Thiamin biosynthesis PUT3, Proline utilization RCS1, Iron transport : mRNA processing : Vesicle trafficking RDS1, Resistance to cycloheximide RPH1, DNA damage RPN4, Proteasome : Ubiquitin signalling RTG3, Amino acid metabolism : Citrate metabolism SIP4, Gluconeogenesis STP1, tRNA processing : Amino acid permease expression SUM1, Cell cycle repressor of sporulation genes TEC1, Cell differentiation TYE7, Glucose metabolism UGA3, Nitrogen metabolism XBP1, Carbohydrate metabolism : Cell cycle YAP3, Stress response YJL206C, Uncharacterized YRR1, Drug response 12 20 ARO80, Amino acid metabolism AZF1, Cell division CST6, Carbon catobolism (non-optimal source) FKH1, Cell cycle : Cell differentiation FZF1, Sulphite metabolism HAC1, Protein folding : Fatty acid biosynthesis MAC1, Copper and Iron transport MCM1, Cell cycle PPR1, Nucleotide biosynthesis REB1, Cell division : rRNA biosynthesis RLM1, Cellular integrity RME1, Cell division : Cell differentiation RPN4, Proteasome : Ubiquitin signalling RTG3, Amino acid metabolism : Citrate metabolism STE12, Pheromone response SWI5, Cell cycle TYE7, Glucose metabolism UPC2, Ergosterol biosynthesis YAP3, Stress response YDR266C, Uncharacterized 12 20 ARO80, Amino acid metabolism BAS1, Nucleotide biosynthesis CIN5, Stress response (salt tolerance) : Drug response GCR1, Glycolysis GLN3, Nitrogen metabolism HMLALPHA2, Mating type specificity HSF1, Stress response (heat shock) INO2, Phospholipid biosynthesis INO4, Fatty acid biosynthesis MCM1, Cell cycle MOT3, Regulation of hypoxic genes : Ergosterol biosynthesis MSN1, Cell differentiation : Stress (osmotic) PHD1, Cell differentiation PHO2, Phosphate metabolism : Nucleotide metabolism : Amino acid metabolism RDS1, Resistance to cycloheximide REB1, Cell division : rRNA biosynthesis RPH1, DNA damage STE12, Pheromone response TEC1, Cell differentiation UPC2, Ergosterol biosynthesis 12 21 ARO80, Amino acid metabolism ARR1, Stress response (Arsenic) BAS1, Nucleotide biosynthesis CAD1, Stress response (Cadmium) CHA4, Amino acid metabolism DAL80, Nitrogen metabolism DAL81, Nitrogen metabolism DAT1, Binds AT rich sequence FZF1, Sulphite metabolism GAL4, Carbohydrate metabolism HAL9, Salt tolerance HAP4, Electron transport : Ergosterol biosynthesis LEU3, Amino acid metabolism MET32, Amino acid metabolism PDR1, Drug response SMP1, Stress response (osmotic) STP1, tRNA processing : Amino acid permease expression TYE7, Glucose metabolism UGA3, Nitrogen metabolism YFL044C, Uncharacterized YJL206C, Uncharacterized 12 22 ASH1, Homothallic switching CAT8, Diauxic shift : Carbon compound metabolism DAL81, Nitrogen metabolism GAL80, Carbohydrate metabolism HAP1, Osmoregulation HMLALPHA2, Mating type specificity HMRA1, Mating type specificity HSF1, Stress response (heat shock) INO2, Phospholipid biosynthesis INO4, Fatty acid biosynthesis MCM1, Cell cycle NRG1, Glucose metabolism : Drug response : Cell differentiation PDR3, Drug response PHO2, Phosphate metabolism : Nucleotide metabolism : Amino acid metabolism PIP2, Fatty acid metabolism : Peroxisome biogenesis RDS1, Resistance to cycloheximide RIM101, pH regulation : Cell differentiation SWI5, Cell cycle TOS4, Cell cycle : Pheromone response UME6, Sporulation : Amino acid biosynthesis YER184C, Uncharacterized YML081W, Uncharacterized 12 28 ARG81, Amino acid metabolism AZF1, Cell division CAD1, Stress response (Cadmium) CIN5, Stress response (salt tolerance) : Drug response DAL81, Nitrogen metabolism FZF1, Sulphite metabolism GLN3, Nitrogen metabolism GZF3, Nitrogen metabolism HAL9, Salt tolerance HAP4, Electron transport : Ergosterol biosynthesis HMS2, Cell differentiation MAC1, Copper and Iron transport MCM1, Cell cycle MSN1, Cell differentiation : Stress (osmotic) MSN2, "Stress response (heat, oxidative and carbon compound deprivation)" MSN4, "Stress response (heat, oxidative and carbon compound deprivation)" NDT80, Sporulation NRG1, Glucose metabolism : Drug response : Cell differentiation PUT3, Proline utilization RIM101, pH regulation : Cell differentiation RPH1, DNA damage SKN7, "Stress response (heat shock, oxidative), Osmoregulation" STP1, tRNA processing : Amino acid permease expression SUT1, Sterol synthesis and uptake : Induction of hypoxic gene expression YAP1, "Stress response (oxidative, metal ion), Drug response" YAP6, Stress response (salt tolerance) YJL206C, Uncharacterized YRR1, Drug response 11 16 ACE2, Cytokinesis ADR1, Carbon compound metabolism : Peroxisome biogenesis CHA4, Amino acid metabolism CST6, Carbon catobolism (non-optimal source) FKH1, Cell cycle : Cell differentiation FKH2, Cell cycle : Cell differentiation HMLALPHA2, Mating type specificity MCM1, Cell cycle MSN1, Cell differentiation : Stress (osmotic) RGT1, Glucose metabolism STE12, Pheromone response STP4, Uncharacterized SWI4, Cell division SWI6, Cell cycle TEC1, Cell differentiation YBR033W, Uncharacterized 11 24 ACE2, Cytokinesis AFT2, Iron homeostasis : Stress response (oxidative) ARG81, Amino acid metabolism ARR1, Stress response (Arsenic) ASH1, Homothallic switching BAS1, Nucleotide biosynthesis CYC8, Stress response: Cell division : Flocculation GAL4, Carbohydrate metabolism GLN3, Nitrogen metabolism HMRA1, Mating type specificity MAL33, Carbohydrate metabolism MET31, Amino acid metabolism MET32, Amino acid metabolism MOT3, Regulation of hypoxic genes : Ergosterol biosynthesis MSN2, "Stress response (heat, oxidative and carbon compound deprivation)" MSN4, "Stress response (heat, oxidative and carbon compound deprivation)" NRG1, Glucose metabolism : Drug response : Cell differentiation PDR1, Drug response PUT3, Proline utilization RLM1, Cellular integrity RPH1, DNA damage RTG3, Amino acid metabolism : Citrate metabolism SMP1, Stress response (osmotic) XBP1, Carbohydrate metabolism : Cell cycle 11 29 ACE2, Cytokinesis AFT2, Iron homeostasis : Stress response (oxidative) ARG81, Amino acid metabolism ARR1, Stress response (Arsenic) ASH1, Homothallic switching AZF1, Cell division DAL81, Nitrogen metabolism GZF3, Nitrogen metabolism HAL9, Salt tolerance HSF1, Stress response (heat shock) MAC1, Copper and Iron transport MOT3, Regulation of hypoxic genes : Ergosterol biosynthesis MSN4, "Stress response (heat, oxidative and carbon compound deprivation)" PDR1, Drug response PHD1, Cell differentiation PLM2, Partitioning of plasmid RAP1, Ribosome biogenesis : Glucose metabolism RCS1, Iron transport : mRNA processing : Vesicle trafficking RLM1, Cellular integrity RPN4, Proteasome : Ubiquitin signalling SIP4, Gluconeogenesis SMP1, Stress response (osmotic) SUM1, Cell cycle repressor of sporulation genes SWI6, Cell cycle UGA3, Nitrogen metabolism XBP1, Carbohydrate metabolism : Cell cycle YAP3, Stress response YER130C, Uncharacterized ZAP1, Zinc homeostasis 10 12 ABF1, Carbon compound metabolism : Cell cycle : Ribosome biogenesis : Nitrogen compound metabolism ARG81, Amino acid metabolism CAT8, Diauxic shift : Carbon compound metabolism CBF1, Amino acid metabolism : DNA damage : Cell cycle : Stress response : Drug response FHL1, Ribosome biogenesis FKH2, Cell cycle : Cell differentiation GCR1, Glycolysis INO2, Phospholipid biosynthesis INO4, Fatty acid biosynthesis RAP1, Ribosome biogenesis : Glucose metabolism SKO1, "Stress response (osmotic, oxidative)" UME6, Sporulation : Amino acid biosynthesis 10 19 CYC8, Stress response: Cell division : Flocculation DAL81, Nitrogen metabolism FKH1, Cell cycle : Cell differentiation GCR1, Glycolysis GLN3, Nitrogen metabolism GZF3, Nitrogen metabolism HAP1, Osmoregulation HSF1, Stress response (heat shock) IXR1, Oxygen regulation MCM1, Cell cycle MET32, Amino acid metabolism MOT3, Regulation of hypoxic genes : Ergosterol biosynthesis RGT1, Glucose metabolism RLM1, Cellular integrity RPH1, DNA damage STE12, Pheromone response TEC1, Cell differentiation TYE7, Glucose metabolism UME6, Sporulation : Amino acid biosynthesis 10 20 ADR1, Carbon compound metabolism : Peroxisome biogenesis DAT1, Binds AT rich sequence HAL9, Salt tolerance HMS2, Cell differentiation PPR1, Nucleotide biosynthesis SPT23, Fatty acid metabolism : Response to cold STB5, Drug response STE12, Pheromone response STP1, tRNA processing : Amino acid permease expression STP2, tRNA processing : Amino acid permease expression THI2, Thiamine biosynthesis TYE7, Glucose metabolism UGA3, Nitrogen metabolism UPC2, Ergosterol biosynthesis YAP3, Stress response YER130C, Uncharacterized YFL044C, Uncharacterized YHP1, Cell cycle YOX1, Cell cycle YRR1, Drug response 10 21 ADR1, Carbon compound metabolism : Peroxisome biogenesis ARG81, Amino acid metabolism CUP2, Copper resistance DAT1, Binds AT rich sequence FZF1, Sulphite metabolism GCN4, Amino acid metabolism IXR1, Oxygen regulation NDT80, Sporulation PHO4, Phosphate metabolism PPR1, Nucleotide biosynthesis RPH1, DNA damage RTG3, Amino acid metabolism : Citrate metabolism SPT23, Fatty acid metabolism : Response to cold STB4, Uncharacterized STB5, Drug response STP1, tRNA processing : Amino acid permease expression TYE7, Glucose metabolism UGA3, Nitrogen metabolism YAP1, "Stress response (oxidative, metal ion), Drug response" YER184C, Uncharacterized YJL206C, Uncharacterized 10 23 ACE2, Cytokinesis AFT2, Iron homeostasis : Stress response (oxidative) ARG81, Amino acid metabolism ARR1, Stress response (Arsenic) ASH1, Homothallic switching DAL80, Nitrogen metabolism GAL4, Carbohydrate metabolism GLN3, Nitrogen metabolism HAL9, Salt tolerance MET31, Amino acid metabolism MGA1, Cell differentiation MOT3, Regulation of hypoxic genes : Ergosterol biosynthesis MSN4, "Stress response (heat, oxidative and carbon compound deprivation)" PLM2, Partitioning of plasmid PUT3, Proline utilization RLM1, Cellular integrity ROX1, Electron transport RTG3, Amino acid metabolism : Citrate metabolism SMP1, Stress response (osmotic) SUM1, Cell cycle repressor of sporulation genes TOS4, Cell cycle : Pheromone response YAP6, Stress response (salt tolerance) ZAP1, Zinc homeostasis 9 15 ARO80, Amino acid metabolism GCR1, Glycolysis HSF1, Stress response (heat shock) INO2, Phospholipid biosynthesis INO4, Fatty acid biosynthesis LEU3, Amino acid metabolism MIG2, Glucose metabolism RCS1, Iron transport : mRNA processing : Vesicle trafficking REB1, Cell division : rRNA biosynthesis RPN4, Proteasome : Ubiquitin signalling RTG1, Intracellular communication RTG3, Amino acid metabolism : Citrate metabolism UPC2, Ergosterol biosynthesis YAP3, Stress response YRR1, Drug response 9 21 ARG81, Amino acid metabolism ARR1, Stress response (Arsenic) AZF1, Cell division DAL80, Nitrogen metabolism DAL81, Nitrogen metabolism DAT1, Binds AT rich sequence GCR1, Glycolysis GLN3, Nitrogen metabolism HAP4, Electron transport : Ergosterol biosynthesis HMS1, Cell differentiation LEU3, Amino acid metabolism MATALPHA1, Mating type specificity MET31, Amino acid metabolism PDC2, Glucose catabolism : Thiamin biosynthesis RCS1, Iron transport : mRNA processing : Vesicle trafficking ROX1, Electron transport RTG3, Amino acid metabolism : Citrate metabolism SIP4, Gluconeogenesis SUM1, Cell cycle repressor of sporulation genes UGA3, Nitrogen metabolism YML081W, Uncharacterized 9 24 ADR1, Carbon compound metabolism : Peroxisome biogenesis ARG81, Amino acid metabolism ARO80, Amino acid metabolism ARR1, Stress response (Arsenic) BAS1, Nucleotide biosynthesis CAT8, Diauxic shift : Carbon compound metabolism FZF1, Sulphite metabolism HMLALPHA2, Mating type specificity HMRA1, Mating type specificity HMRA2, Mating type specificity INO4, Fatty acid biosynthesis MAC1, Copper and Iron transport MCM1, Cell cycle MGA1, Cell differentiation NDT80, Sporulation RDS1, Resistance to cycloheximide RIM101, pH regulation : Cell differentiation RPH1, DNA damage STB5, Drug response STP1, tRNA processing : Amino acid permease expression YAP1, "Stress response (oxidative, metal ion), Drug response" YAP6, Stress response (salt tolerance) YFL044C, Uncharacterized YJL206C, Uncharacterized 9 28 ARG81, Amino acid metabolism DAL80, Nitrogen metabolism FKH1, Cell cycle : Cell differentiation GCR1, Glycolysis GLN3, Nitrogen metabolism GZF3, Nitrogen metabolism HMS2, Cell differentiation IXR1, Oxygen regulation MCM1, Cell cycle MET28, Amino acid metabolism MGA1, Cell differentiation MOT3, Regulation of hypoxic genes : Ergosterol biosynthesis NRG1, Glucose metabolism : Drug response : Cell differentiation PHO2, Phosphate metabolism : Nucleotide metabolism : Amino acid metabolism REB1, Cell division : rRNA biosynthesis RIM101, pH regulation : Cell differentiation RLM1, Cellular integrity ROX1, Electron transport RPH1, DNA damage RTG3, Amino acid metabolism : Citrate metabolism STE12, Pheromone response SUM1, Cell cycle repressor of sporulation genes SWI4, Cell division SWI6, Cell cycle TEC1, Cell differentiation UPC2, Ergosterol biosynthesis XBP1, Carbohydrate metabolism : Cell cycle YAP3, Stress response 8 14 ADR1, Carbon compound metabolism : Peroxisome biogenesis ASH1, Homothallic switching BAS1, Nucleotide biosynthesis CAT8, Diauxic shift : Carbon compound metabolism CYC8, Stress response: Cell division : Flocculation DAL81, Nitrogen metabolism MET32, Amino acid metabolism RDS1, Resistance to cycloheximide ROX1, Electron transport SIP4, Gluconeogenesis STB4, Uncharacterized STP1, tRNA processing : Amino acid permease expression YAP5, Stress response YAP6, Stress response (salt tolerance) 8 16 AZF1, Cell division CAT8, Diauxic shift : Carbon compound metabolism CUP9, Copper homeostasis FKH1, Cell cycle : Cell differentiation GAL80, Carbohydrate metabolism HMS2, Cell differentiation MAC1, Copper and Iron transport MAL33, Carbohydrate metabolism MET32, Amino acid metabolism MIG2, Glucose metabolism NRG1, Glucose metabolism : Drug response : Cell differentiation PIP2, Fatty acid metabolism : Peroxisome biogenesis RGT1, Glucose metabolism STP4, Uncharacterized UME6, Sporulation : Amino acid biosynthesis YAP6, Stress response (salt tolerance) 8 22 ARO80, Amino acid metabolism ASH1, Homothallic switching DAL81, Nitrogen metabolism DAT1, Binds AT rich sequence FKH1, Cell cycle : Cell differentiation FKH2, Cell cycle : Cell differentiation GLN3, Nitrogen metabolism INO2, Phospholipid biosynthesis MAL33, Carbohydrate metabolism MET32, Amino acid metabolism MSS11, Cell differentiation : Starch catabolism PDC2, Glucose catabolism : Thiamin biosynthesis PHO2, Phosphate metabolism : Nucleotide metabolism : Amino acid metabolism PHO4, Phosphate metabolism RIM101, pH regulation : Cell differentiation RPH1, DNA damage RTG3, Amino acid metabolism : Citrate metabolism SUT1, Sterol synthesis and uptake : Induction of hypoxic gene expression SWI5, Cell cycle TEC1, Cell differentiation TYE7, Glucose metabolism XBP1, Carbohydrate metabolism : Cell cycle 7 10 ARG80, Amino acid metabolism BAS1, Nucleotide biosynthesis CAT8, Diauxic shift : Carbon compound metabolism CBF1, Amino acid metabolism : DNA damage : Cell cycle : Stress response : Drug response CRZ1, Stress response (tolerance to high metal concentration) GCN4, Amino acid metabolism PHO4, Phosphate metabolism STB4, Uncharacterized YAP7, Stress response (salt tolerance) YDR026C, Uncharacterized 7 13 ACE2, Cytokinesis ARG80, Amino acid metabolism CAD1, Stress response (Cadmium) CBF1, Amino acid metabolism : DNA damage : Cell cycle : Stress response : Drug response CUP2, Copper resistance DAL81, Nitrogen metabolism GCN4, Amino acid metabolism HSF1, Stress response (heat shock) INO2, Phospholipid biosynthesis PHO4, Phosphate metabolism STB4, Uncharacterized YAP1, "Stress response (oxidative, metal ion), Drug response" YAP7, Stress response (salt tolerance) 7 13 ARO80, Amino acid metabolism BAS1, Nucleotide biosynthesis CHA4, Amino acid metabolism DAL80, Nitrogen metabolism DAL81, Nitrogen metabolism FZF1, Sulphite metabolism HAP4, Electron transport : Ergosterol biosynthesis HSF1, Stress response (heat shock) MCM1, Cell cycle NRG1, Glucose metabolism : Drug response : Cell differentiation STP1, tRNA processing : Amino acid permease expression YFL044C, Uncharacterized YJL206C, Uncharacterized 7 15 ARO80, Amino acid metabolism HMLALPHA1, Mating type specificity HMLALPHA2, Mating type specificity HMRA1, Mating type specificity HMRA2, Mating type specificity HMS2, Cell differentiation MATALPHA1, Mating type specificity MCM1, Cell cycle MOT3, Regulation of hypoxic genes : Ergosterol biosynthesis MSN1, Cell differentiation : Stress (osmotic) PHD1, Cell differentiation REB1, Cell division : rRNA biosynthesis STE12, Pheromone response SWI5, Cell cycle YER108C, Cell differentiation 7 16 ADR1, Carbon compound metabolism : Peroxisome biogenesis ARO80, Amino acid metabolism CYC8, Stress response: Cell division : Flocculation FZF1, Sulphite metabolism GCR1, Glycolysis GZF3, Nitrogen metabolism HMS2, Cell differentiation MAL33, Carbohydrate metabolism RIM101, pH regulation : Cell differentiation RPH1, DNA damage TYE7, Glucose metabolism YAP5, Stress response YER108C, Cell differentiation YFL044C, Uncharacterized YJL206C, Uncharacterized YRR1, Drug response 7 21 ASH1, Homothallic switching CAT8, Diauxic shift : Carbon compound metabolism CST6, Carbon catobolism (non-optimal source) GAL4, Carbohydrate metabolism GAL80, Carbohydrate metabolism GZF3, Nitrogen metabolism HAL9, Salt tolerance HAP4, Electron transport : Ergosterol biosynthesis MET28, Amino acid metabolism MET32, Amino acid metabolism NDT80, Sporulation NRG1, Glucose metabolism : Drug response : Cell differentiation PDR3, Drug response RDS1, Resistance to cycloheximide RIM101, pH regulation : Cell differentiation ROX1, Electron transport SIP4, Gluconeogenesis UGA3, Nitrogen metabolism YAP5, Stress response YAP6, Stress response (salt tolerance) YAP7, Stress response (salt tolerance) 6 15 CST6, Carbon catobolism (non-optimal source) GZF3, Nitrogen metabolism LEU3, Amino acid metabolism MAL33, Carbohydrate metabolism MET32, Amino acid metabolism MIG2, Glucose metabolism MOT3, Regulation of hypoxic genes : Ergosterol biosynthesis TOS8, Cell cycle TYE7, Glucose metabolism UGA3, Nitrogen metabolism UPC2, Ergosterol biosynthesis YAP3, Stress response YDR049W, Uncharacterized YER130C, Uncharacterized YRR1, Drug response 6 18 DAL81, Nitrogen metabolism HAL9, Salt tolerance INO2, Phospholipid biosynthesis LEU3, Amino acid metabolism MAL33, Carbohydrate metabolism MET31, Amino acid metabolism MET32, Amino acid metabolism MOT3, Regulation of hypoxic genes : Ergosterol biosynthesis MSN4, "Stress response (heat, oxidative and carbon compound deprivation)" PHO2, Phosphate metabolism : Nucleotide metabolism : Amino acid metabolism RIM101, pH regulation : Cell differentiation RLM1, Cellular integrity ROX1, Electron transport RTG1, Intracellular communication RTG3, Amino acid metabolism : Citrate metabolism XBP1, Carbohydrate metabolism : Cell cycle YRR1, Drug response ZAP1, Zinc homeostasis 5 11 AFT2, Iron homeostasis : Stress response (oxidative) ARO80, Amino acid metabolism CUP9, Copper homeostasis HAP4, Electron transport : Ergosterol biosynthesis INO4, Fatty acid biosynthesis MIG1, Glucose metabolism NRG1, Glucose metabolism : Drug response : Cell differentiation SMP1, Stress response (osmotic) SUT1, Sterol synthesis and uptake : Induction of hypoxic gene expression TEC1, Cell differentiation THI2, Thiamine biosynthesis 5 13 AFT2, Iron homeostasis : Stress response (oxidative) ARO80, Amino acid metabolism CAD1, Stress response (Cadmium) FZF1, Sulphite metabolism GZF3, Nitrogen metabolism HCM1, Cell cycle SMP1, Stress response (osmotic) THI2, Thiamine biosynthesis UGA3, Nitrogen metabolism YAP1, "Stress response (oxidative, metal ion), Drug response" YAP3, Stress response YAP5, Stress response YJL206C, Uncharacterized 5 15 ASH1, Homothallic switching FKH2, Cell cycle : Cell differentiation GLN3, Nitrogen metabolism GZF3, Nitrogen metabolism INO2, Phospholipid biosynthesis INO4, Fatty acid biosynthesis LEU3, Amino acid metabolism MSN4, "Stress response (heat, oxidative and carbon compound deprivation)" PHO2, Phosphate metabolism : Nucleotide metabolism : Amino acid metabolism RIM101, pH regulation : Cell differentiation SKO1, "Stress response (osmotic, oxidative)" SWI5, Cell cycle XBP1, Carbohydrate metabolism : Cell cycle YAP1, "Stress response (oxidative, metal ion), Drug response" YRR1, Drug response 5 16 ACE2, Cytokinesis AFT2, Iron homeostasis : Stress response (oxidative) ARG81, Amino acid metabolism BAS1, Nucleotide biosynthesis DAL80, Nitrogen metabolism GCR1, Glycolysis HAL9, Salt tolerance HAP4, Electron transport : Ergosterol biosynthesis MET31, Amino acid metabolism MOT3, Regulation of hypoxic genes : Ergosterol biosynthesis PDR1, Drug response RAP1, Ribosome biogenesis : Glucose metabolism RME1, Cell division : Cell differentiation SMP1, Stress response (osmotic) STP1, tRNA processing : Amino acid permease expression ZAP1, Zinc homeostasis 5 16 ACE2, Cytokinesis AFT2, Iron homeostasis : Stress response (oxidative) AZF1, Cell division CYC8, Stress response: Cell division : Flocculation DAL80, Nitrogen metabolism GCR1, Glycolysis HAL9, Salt tolerance HAP1, Osmoregulation HAP4, Electron transport : Ergosterol biosynthesis HMS1, Cell differentiation MOT3, Regulation of hypoxic genes : Ergosterol biosynthesis MSN2, "Stress response (heat, oxidative and carbon compound deprivation)" ROX1, Electron transport RPN4, Proteasome : Ubiquitin signalling SKO1, "Stress response (osmotic, oxidative)" YAP6, Stress response (salt tolerance) 5 16 ACE2, Cytokinesis ARO80, Amino acid metabolism AZF1, Cell division CAD1, Stress response (Cadmium) GLN3, Nitrogen metabolism MAL33, Carbohydrate metabolism MBP1, Cell cycle MCM1, Cell cycle RLM1, Cellular integrity SMP1, Stress response (osmotic) SOK2, Cell differentiation SWI5, Cell cycle SWI6, Cell cycle TEC1, Cell differentiation XBP1, Carbohydrate metabolism : Cell cycle YAP3, Stress response 5 16 ARG81, Amino acid metabolism AZF1, Cell division DAL80, Nitrogen metabolism GCR1, Glycolysis GLN3, Nitrogen metabolism GZF3, Nitrogen metabolism HAP4, Electron transport : Ergosterol biosynthesis IXR1, Oxygen regulation MET31, Amino acid metabolism MGA1, Cell differentiation ROX1, Electron transport RPH1, DNA damage RTG1, Intracellular communication RTG3, Amino acid metabolism : Citrate metabolism SUM1, Cell cycle repressor of sporulation genes TEC1, Cell differentiation 4 11 ABF1, Carbon compound metabolism : Cell cycle : Ribosome biogenesis : Nitrogen compound metabolism ARG81, Amino acid metabolism AZF1, Cell division BAS1, Nucleotide biosynthesis CBF1, Amino acid metabolism : DNA damage : Cell cycle : Stress response : Drug response GCN4, Amino acid metabolism GLN3, Nitrogen metabolism HAL9, Salt tolerance MET31, Amino acid metabolism MOT3, Regulation of hypoxic genes : Ergosterol biosynthesis WAR1, Stress response (weak acid) 4 11 ABF1, Carbon compound metabolism : Cell cycle : Ribosome biogenesis : Nitrogen compound metabolism INO2, Phospholipid biosynthesis INO4, Fatty acid biosynthesis LEU3, Amino acid metabolism MIG2, Glucose metabolism PHO2, Phosphate metabolism : Nucleotide metabolism : Amino acid metabolism RDS1, Resistance to cycloheximide REB1, Cell division : rRNA biosynthesis RIM101, pH regulation : Cell differentiation UME6, Sporulation : Amino acid biosynthesis YRR1, Drug response 4 11 ACE2, Cytokinesis ASH1, Homothallic switching DAL81, Nitrogen metabolism FKH1, Cell cycle : Cell differentiation FKH2, Cell cycle : Cell differentiation GLN3, Nitrogen metabolism MSN1, Cell differentiation : Stress (osmotic) PHO4, Phosphate metabolism RIM101, pH regulation : Cell differentiation SWI4, Cell division YAP1, "Stress response (oxidative, metal ion), Drug response" 4 11 ARR1, Stress response (Arsenic) HMLALPHA1, Mating type specificity HMLALPHA2, Mating type specificity HMRA1, Mating type specificity HMS2, Cell differentiation MCM1, Cell cycle MSN2, "Stress response (heat, oxidative and carbon compound deprivation)" NRG1, Glucose metabolism : Drug response : Cell differentiation STP1, tRNA processing : Amino acid permease expression TOS4, Cell cycle : Pheromone response UGA3, Nitrogen metabolism 4 11 AZF1, Cell division CIN5, Stress response (salt tolerance) : Drug response DAL81, Nitrogen metabolism GCR1, Glycolysis HAL9, Salt tolerance HSF1, Stress response (heat shock) MIG2, Glucose metabolism MOT3, Regulation of hypoxic genes : Ergosterol biosynthesis MSN1, Cell differentiation : Stress (osmotic) MSN2, "Stress response (heat, oxidative and carbon compound deprivation)" STE12, Pheromone response 4 12 AZF1, Cell division CBF1, Amino acid metabolism : DNA damage : Cell cycle : Stress response : Drug response GAT3, Binds to sub-telomreic regions GLN3, Nitrogen metabolism HAP4, Electron transport : Ergosterol biosynthesis MET28, Amino acid metabolism MET31, Amino acid metabolism MET32, Amino acid metabolism MET4, Amino acid metabolism NDT80, Sporulation RTG1, Intracellular communication TYE7, Glucose metabolism 4 12 BAS1, Nucleotide biosynthesis CBF1, Amino acid metabolism : DNA damage : Cell cycle : Stress response : Drug response FHL1, Ribosome biogenesis GTS1, Ultradian rhythm : Cell size : Sporulation IXR1, Oxygen regulation MAC1, Copper and Iron transport MET31, Amino acid metabolism MET32, Amino acid metabolism MET4, Amino acid metabolism RME1, Cell division : Cell differentiation RPH1, DNA damage RTG1, Intracellular communication 4 12 CAD1, Stress response (Cadmium) CUP2, Copper resistance DAL81, Nitrogen metabolism FZF1, Sulphite metabolism GLN3, Nitrogen metabolism HSF1, Stress response (heat shock) MSN1, Cell differentiation : Stress (osmotic) SKN7, "Stress response (heat shock, oxidative), Osmoregulation" SOK2, Cell differentiation SWI6, Cell cycle YAP1, "Stress response (oxidative, metal ion), Drug response" YAP7, Stress response (salt tolerance) 4 13 ARG81, Amino acid metabolism ARR1, Stress response (Arsenic) LEU3, Amino acid metabolism MAC1, Copper and Iron transport PPR1, Nucleotide biosynthesis RCS1, Iron transport : mRNA processing : Vesicle trafficking RLM1, Cellular integrity SIP4, Gluconeogenesis STB4, Uncharacterized SUM1, Cell cycle repressor of sporulation genes UGA3, Nitrogen metabolism UPC2, Ergosterol biosynthesis YER184C, Uncharacterized 4 14 ADR1, Carbon compound metabolism : Peroxisome biogenesis CAD1, Stress response (Cadmium) GZF3, Nitrogen metabolism HAL9, Salt tolerance HCM1, Cell cycle LEU3, Amino acid metabolism PDR1, Drug response SOK2, Cell differentiation SPT23, Fatty acid metabolism : Response to cold UGA3, Nitrogen metabolism YAP3, Stress response YFL044C, Uncharacterized YML081W, Uncharacterized YOX1, Cell cycle 4 14 GCR1, Glycolysis IXR1, Oxygen regulation LEU3, Amino acid metabolism MAC1, Copper and Iron transport RAP1, Ribosome biogenesis : Glucose metabolism RLM1, Cellular integrity RME1, Cell division : Cell differentiation RPH1, DNA damage SFP1, Ribosome biogenesis : Cell division : Cell size STE12, Pheromone response SUM1, Cell cycle repressor of sporulation genes UGA3, Nitrogen metabolism UPC2, Ergosterol biosynthesis YAP3, Stress response 4 16 ACE2, Cytokinesis ARG81, Amino acid metabolism AZF1, Cell division CIN5, Stress response (salt tolerance) : Drug response DAL81, Nitrogen metabolism GCR1, Glycolysis GZF3, Nitrogen metabolism HAL9, Salt tolerance HAP1, Osmoregulation MOT3, Regulation of hypoxic genes : Ergosterol biosynthesis MSN2, "Stress response (heat, oxidative and carbon compound deprivation)" MSN4, "Stress response (heat, oxidative and carbon compound deprivation)" RIM101, pH regulation : Cell differentiation RLM1, Cellular integrity RTG1, Intracellular communication STP1, tRNA processing : Amino acid permease expression 4 18 AFT2, Iron homeostasis : Stress response (oxidative) ARG81, Amino acid metabolism DAL80, Nitrogen metabolism GLN3, Nitrogen metabolism HMS2, Cell differentiation HSF1, Stress response (heat shock) LEU3, Amino acid metabolism MET31, Amino acid metabolism MET4, Amino acid metabolism MOT3, Regulation of hypoxic genes : Ergosterol biosynthesis PUT3, Proline utilization ROX1, Electron transport RPH1, DNA damage RTG3, Amino acid metabolism : Citrate metabolism SKN7, "Stress response (heat shock, oxidative), Osmoregulation" YAP6, Stress response (salt tolerance) YER130C, Uncharacterized ZAP1, Zinc homeostasis 4 7 CHA4, Amino acid metabolism HMLALPHA1, Mating type specificity PLM2, Partitioning of plasmid RCS1, Iron transport : mRNA processing : Vesicle trafficking REB1, Cell division : rRNA biosynthesis STB4, Uncharacterized YDR026C, Uncharacterized 4 8 GCR1, Glycolysis INO2, Phospholipid biosynthesis INO4, Fatty acid biosynthesis LEU3, Amino acid metabolism MCM1, Cell cycle PDR3, Drug response REB1, Cell division : rRNA biosynthesis YML081W, Uncharacterized 4 9 ASH1, Homothallic switching CAT8, Diauxic shift : Carbon compound metabolism INO4, Fatty acid biosynthesis MCM1, Cell cycle RDS1, Resistance to cycloheximide REB1, Cell division : rRNA biosynthesis STB4, Uncharacterized TOS4, Cell cycle : Pheromone response YAP6, Stress response (salt tolerance) 3 10 ARG80, Amino acid metabolism ARG81, Amino acid metabolism CBF1, Amino acid metabolism : DNA damage : Cell cycle : Stress response : Drug response DAL81, Nitrogen metabolism GCN4, Amino acid metabolism HAL9, Salt tolerance PHD1, Cell differentiation SUT1, Sterol synthesis and uptake : Induction of hypoxic gene expression UME6, Sporulation : Amino acid biosynthesis YAP7, Stress response (salt tolerance) 3 10 BAS1, Nucleotide biosynthesis CAT8, Diauxic shift : Carbon compound metabolism CBF1, Amino acid metabolism : DNA damage : Cell cycle : Stress response : Drug response GAL4, Carbohydrate metabolism MAL33, Carbohydrate metabolism MET32, Amino acid metabolism MOT3, Regulation of hypoxic genes : Ergosterol biosynthesis RME1, Cell division : Cell differentiation SMP1, Stress response (osmotic) YFL044C, Uncharacterized 3 11 AFT2, Iron homeostasis : Stress response (oxidative) ARG81, Amino acid metabolism DAL80, Nitrogen metabolism HAP1, Osmoregulation MAC1, Copper and Iron transport MSN2, "Stress response (heat, oxidative and carbon compound deprivation)" PUT3, Proline utilization RCS1, Iron transport : mRNA processing : Vesicle trafficking RDS1, Resistance to cycloheximide RPH1, DNA damage THI2, Thiamine biosynthesis 3 11 CAT8, Diauxic shift : Carbon compound metabolism GTS1, Ultradian rhythm : Cell size : Sporulation GZF3, Nitrogen metabolism HMS2, Cell differentiation MET32, Amino acid metabolism MIG2, Glucose metabolism RLM1, Cellular integrity SFP1, Ribosome biogenesis : Cell division : Cell size SIP4, Gluconeogenesis STP1, tRNA processing : Amino acid permease expression YRR1, Drug response 3 12 ACE2, Cytokinesis CYC8, Stress response: Cell division : Flocculation GCR1, Glycolysis GLN3, Nitrogen metabolism HAP1, Osmoregulation INO2, Phospholipid biosynthesis MIG3, Reistance to hydroxyurea : Carbohydrate metabolism MOT3, Regulation of hypoxic genes : Ergosterol biosynthesis RLM1, Cellular integrity SWI6, Cell cycle XBP1, Carbohydrate metabolism : Cell cycle ZAP1, Zinc homeostasis 3 12 GAT3, Binds to sub-telomreic regions GTS1, Ultradian rhythm : Cell size : Sporulation IXR1, Oxygen regulation MET4, Amino acid metabolism RLM1, Cellular integrity RME1, Cell division : Cell differentiation RPH1, DNA damage SFP1, Ribosome biogenesis : Cell division : Cell size UPC2, Ergosterol biosynthesis YAP1, "Stress response (oxidative, metal ion), Drug response" YAP6, Stress response (salt tolerance) YRR1, Drug response 3 14 CRZ1, Stress response (tolerance to high metal concentration) FKH2, Cell cycle : Cell differentiation GAL4, Carbohydrate metabolism GZF3, Nitrogen metabolism MIG1, Glucose metabolism MIG2, Glucose metabolism NRG1, Glucose metabolism : Drug response : Cell differentiation PIP2, Fatty acid metabolism : Peroxisome biogenesis RAP1, Ribosome biogenesis : Glucose metabolism SKO1, "Stress response (osmotic, oxidative)" SOK2, Cell differentiation SPT23, Fatty acid metabolism : Response to cold STP4, Uncharacterized YAP6, Stress response (salt tolerance) 3 5 ABF1, Carbon compound metabolism : Cell cycle : Ribosome biogenesis : Nitrogen compound metabolism ADR1, Carbon compound metabolism : Peroxisome biogenesis CAT8, Diauxic shift : Carbon compound metabolism GCN4, Amino acid metabolism PIP2, Fatty acid metabolism : Peroxisome biogenesis 3 5 ABF1, Carbon compound metabolism : Cell cycle : Ribosome biogenesis : Nitrogen compound metabolism CHA4, Amino acid metabolism TOS4, Cell cycle : Pheromone response WAR1, Stress response (weak acid) YDR026C, Uncharacterized 3 5 HAP4, Electron transport : Ergosterol biosynthesis HSF1, Stress response (heat shock) RPN4, Proteasome : Ubiquitin signalling YDR520C, Uncharacterized YKR064W, Uncharacterized 3 6 FHL1, Ribosome biogenesis RAP1, Ribosome biogenesis : Glucose metabolism RME1, Cell division : Cell differentiation TOS8, Cell cycle YDR520C, Uncharacterized YPL230W, Uncharacterized 3 7 CBF1, Amino acid metabolism : DNA damage : Cell cycle : Stress response : Drug response MET28, Amino acid metabolism MET31, Amino acid metabolism MET32, Amino acid metabolism TYE7, Glucose metabolism YAP7, Stress response (salt tolerance) YOX1, Cell cycle 3 7 CST6, Carbon catobolism (non-optimal source) RDS1, Resistance to cycloheximide RLM1, Cellular integrity RPH1, DNA damage SWI5, Cell cycle YAP5, Stress response YDR266C, Uncharacterized 3 8 ABF1, Carbon compound metabolism : Cell cycle : Ribosome biogenesis : Nitrogen compound metabolism ADR1, Carbon compound metabolism : Peroxisome biogenesis CST6, Carbon catobolism (non-optimal source) CYC8, Stress response: Cell division : Flocculation FKH1, Cell cycle : Cell differentiation HAC1, Protein folding : Fatty acid biosynthesis RME1, Cell division : Cell differentiation UPC2, Ergosterol biosynthesis 3 8 CHA4, Amino acid metabolism CYC8, Stress response: Cell division : Flocculation MET31, Amino acid metabolism MET4, Amino acid metabolism PDC2, Glucose catabolism : Thiamin biosynthesis TOS4, Cell cycle : Pheromone response XBP1, Carbohydrate metabolism : Cell cycle ZAP1, Zinc homeostasis 3 8 GAL80, Carbohydrate metabolism GTS1, Ultradian rhythm : Cell size : Sporulation MOT3, Regulation of hypoxic genes : Ergosterol biosynthesis RAP1, Ribosome biogenesis : Glucose metabolism RPH1, DNA damage RPN4, Proteasome : Ubiquitin signalling SFP1, Ribosome biogenesis : Cell division : Cell size UPC2, Ergosterol biosynthesis 3 9 ARR1, Stress response (Arsenic) CAD1, Stress response (Cadmium) GZF3, Nitrogen metabolism HAP4, Electron transport : Ergosterol biosynthesis MSN4, "Stress response (heat, oxidative and carbon compound deprivation)" STP1, tRNA processing : Amino acid permease expression YAP7, Stress response (salt tolerance) YFL044C, Uncharacterized YJL206C, Uncharacterized 3 9 DAL80, Nitrogen metabolism GCR1, Glycolysis MSN2, "Stress response (heat, oxidative and carbon compound deprivation)" RAP1, Ribosome biogenesis : Glucose metabolism RME1, Cell division : Cell differentiation RPH1, DNA damage RPN4, Proteasome : Ubiquitin signalling TYE7, Glucose metabolism UPC2, Ergosterol biosynthesis 2 10 CAD1, Stress response (Cadmium) CIN5, Stress response (salt tolerance) : Drug response GCN4, Amino acid metabolism GLN3, Nitrogen metabolism HSF1, Stress response (heat shock) PDC2, Glucose catabolism : Thiamin biosynthesis STP1, tRNA processing : Amino acid permease expression YAP1, "Stress response (oxidative, metal ion), Drug response" YAP6, Stress response (salt tolerance) YAP7, Stress response (salt tolerance) 2 4 ABF1, Carbon compound metabolism : Cell cycle : Ribosome biogenesis : Nitrogen compound metabolism CAT8, Diauxic shift : Carbon compound metabolism CHA4, Amino acid metabolism STB4, Uncharacterized 2 4 ABF1, Carbon compound metabolism : Cell cycle : Ribosome biogenesis : Nitrogen compound metabolism CHA4, Amino acid metabolism FKH1, Cell cycle : Cell differentiation INO4, Fatty acid biosynthesis 2 4 CAT8, Diauxic shift : Carbon compound metabolism CYC8, Stress response: Cell division : Flocculation GCR1, Glycolysis TOS4, Cell cycle : Pheromone response 2 4 CHA4, Amino acid metabolism PHO4, Phosphate metabolism SIP4, Gluconeogenesis STB4, Uncharacterized 2 5 ASH1, Homothallic switching STB5, Drug response YAP7, Stress response (salt tolerance) YDR026C, Uncharacterized YKR064W, Uncharacterized 2 6 ARG81, Amino acid metabolism BAS1, Nucleotide biosynthesis GCR1, Glycolysis MET31, Amino acid metabolism STP1, tRNA processing : Amino acid permease expression TOS4, Cell cycle : Pheromone response 2 6 ASH1, Homothallic switching PDR1, Drug response PHD1, Cell differentiation SMP1, Stress response (osmotic) YAP7, Stress response (salt tolerance) YFL044C, Uncharacterized 2 6 CYC8, Stress response: Cell division : Flocculation GAL4, Carbohydrate metabolism HAC1, Protein folding : Fatty acid biosynthesis SOK2, Cell differentiation YAP5, Stress response YHP1, Cell cycle 2 6 HSF1, Stress response (heat shock) MOT3, Regulation of hypoxic genes : Ergosterol biosynthesis RPH1, DNA damage RPN4, Proteasome : Ubiquitin signalling SFP1, Ribosome biogenesis : Cell division : Cell size YRR1, Drug response 2 7 ACE2, Cytokinesis HMLALPHA2, Mating type specificity HMRA1, Mating type specificity MCM1, Cell cycle MOT3, Regulation of hypoxic genes : Ergosterol biosynthesis PHD1, Cell differentiation SWI5, Cell cycle 2 7 ADR1, Carbon compound metabolism : Peroxisome biogenesis CYC8, Stress response: Cell division : Flocculation GCR1, Glycolysis GZF3, Nitrogen metabolism HAL9, Salt tolerance RPH1, DNA damage YAP5, Stress response 2 7 ARO80, Amino acid metabolism FZF1, Sulphite metabolism HMLALPHA2, Mating type specificity MCM1, Cell cycle NRG1, Glucose metabolism : Drug response : Cell differentiation REB1, Cell division : rRNA biosynthesis RME1, Cell division : Cell differentiation 2 7 ARO80, Amino acid metabolism GZF3, Nitrogen metabolism INO4, Fatty acid biosynthesis MCM1, Cell cycle MIG2, Glucose metabolism REB1, Cell division : rRNA biosynthesis UGA3, Nitrogen metabolism 2 7 BAS1, Nucleotide biosynthesis CAT8, Diauxic shift : Carbon compound metabolism FZF1, Sulphite metabolism STB5, Drug response STP1, tRNA processing : Amino acid permease expression TOS4, Cell cycle : Pheromone response YJL206C, Uncharacterized 2 7 CYC8, Stress response: Cell division : Flocculation HMLALPHA1, Mating type specificity HMRA1, Mating type specificity MSN1, Cell differentiation : Stress (osmotic) NRG1, Glucose metabolism : Drug response : Cell differentiation TOS4, Cell cycle : Pheromone response YER108C, Cell differentiation 2 7 FZF1, Sulphite metabolism MBP1, Cell cycle MCM1, Cell cycle RTG3, Amino acid metabolism : Citrate metabolism STP1, tRNA processing : Amino acid permease expression UPC2, Ergosterol biosynthesis YAP3, Stress response 2 7 GAT3, Binds to sub-telomreic regions GCR1, Glycolysis PDR1, Drug response RAP1, Ribosome biogenesis : Glucose metabolism RPN4, Proteasome : Ubiquitin signalling SFP1, Ribosome biogenesis : Cell division : Cell size UPC2, Ergosterol biosynthesis 2 8 ADR1, Carbon compound metabolism : Peroxisome biogenesis DAT1, Binds AT rich sequence NDT80, Sporulation PPR1, Nucleotide biosynthesis RIM101, pH regulation : Cell differentiation SPT23, Fatty acid metabolism : Response to cold YAP1, "Stress response (oxidative, metal ion), Drug response" YFL044C, Uncharacterized 2 8 AFT2, Iron homeostasis : Stress response (oxidative) ARG81, Amino acid metabolism AZF1, Cell division MAC1, Copper and Iron transport MSN2, "Stress response (heat, oxidative and carbon compound deprivation)" RIM101, pH regulation : Cell differentiation SIP4, Gluconeogenesis SUT1, Sterol synthesis and uptake : Induction of hypoxic gene expression 2 8 CST6, Carbon catobolism (non-optimal source) GAL4, Carbohydrate metabolism GAL80, Carbohydrate metabolism MET32, Amino acid metabolism PDR1, Drug response PDR3, Drug response TOS8, Cell cycle UGA3, Nitrogen metabolism