Talk:List of omics topics in biology

Title

Since "omics" is a suffix rather than a word, shouldn't this article's title be "List of -omics topics in biology"? 212.84.104.198 (talk) 11:45, 23 October 2009 (UTC)

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External links modified

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New -omics topics

There are new stubs at Pangenomics, Hologenomics, Multiomics, none of which are in this list. Experts in the area might like to contribute. PamD 13:28, 31 October 2016 (UTC)

A list moved from Omics page

Moving here (and to Talk:Omics) a long numbered miscellaneous list:

Extended content

1. Genomics: Study of the genome, the complete set of genes in an organism. 2. Proteomics: Study of the proteome, the entire collection of proteins in an organism's cells. 3. Metabolomics: Study of metabolism and the function and interactions of metabolic breakdown products, or metabolites. 4. Transcriptomics: Study of the full complement of RNA in an organism's cells. 5. Lipidomics: Study of lipids and pathways involved in lipid signaling. 6. Epigenomics: Study of the chemical modifications to DNA and histone proteins that regulate gene expression without changing the DNA sequence. 7. Glycomics: Study of the glycome, the complete set of sugars, or glycans, in an organism. 8. Phenomics: Study of phenomes, the physical and biochemical traits of organisms. 9. harmacogenomics: Study of how genes affect a person's response to drugs. 10. Toxicogenomics: Study of the effects of toxic chemicals on the genome and gene expression. 11. Nutrigenomics: Study of the interactions between nutrition and genes. 12. Microbiomics: Study of microbial communities (microbiota) and their collective genomes (microbiome). 13. Viromics: Study of the viral community and their interactions within a host organism. 14. Exposomics: Study of the totality of human environmental exposures and their effects on health. 15. Connectomics: Study of neural connections in the brain. 16. Immunomics: Study of the immune system on an omic scale. 17. Interactomics: Study of the relationships and interactions between proteins and other molecules. 18. Fluxomics: Study of the rates of metabolic reactions in a biological system. 19. *Phosphoproteomics: Study of phosphorylated proteins and their roles in cell signaling and function. 20. Splicomics: Study of RNA splicing and its variations across different tissues or conditions. 21. Secretomics: Study of the secretome, the entire set of proteins secreted by a cell, tissue, or organism. 22. Degradomics: Study of the proteolytic enzymes (proteases) and their substrates. 23. Ubiquitinomics: Study of ubiquitin and ubiquitin-like protein modifications on other proteins. 24. Metallomics: Study of the role of metal ions in biological systems. 25. Redoxomics**: Study of redox states and the roles of reactive oxygen species in cellular processes. 26. Volatilomics**: Study of volatile organic compounds produced by living organisms. 27. Theranostics**: A combination of therapeutics and diagnostics, often studied at an omics level. 28. Cytomics**: Study of the cell and its functions at a molecular level. 29. Sensomics**: Study of sensory perception and the associated molecules and pathways. 30. Foodomics**: Application of omics technologies in food and nutrition research. 31. Chronomics**: Study of biological rhythms and their molecular mechanisms. 32. Peptidomics**: Study of peptides, their structures, functions, and roles in biology. 33. Ecogenomics**: Study of the genetic composition of ecological communities and their interactions with the environment. 34. Pathogenomics**: Study of the genomes of pathogens to understand their biology and interaction with hosts. 35. Nucleomics**: Study of the nuclear components of cells, including chromatin and nuclear bodies. 36. Single-cell omics**: Study of the omics data at the single-cell level to understand cellular heterogeneity. 37. Oncomics**: Study of cancer-related genes, proteins, and pathways. 38. Biomechanics omics**: Study of the mechanical properties of biological molecules and structures. 39. Symbiomics**: Study of symbiotic relationships at the molecular level. 40. Interactomics**: Study of molecular interactions in biological systems, including protein-protein, protein-DNA, and protein-RNA interactions. 41. Paleomics**: Study of ancient biological materials through omics technologies. 42. Methylomics**: Study of DNA methylation patterns across the genome. 43. Toxicoepigenomics**: Study of the effects of environmental toxins on epigenetic modifications. 44. Neurogenomics**: Study of the genetic basis of nervous system structure and function. 45. Immunopeptidomics**: Study of peptides presented by the immune system, particularly those bound to MHC molecules. 46. Phytomics**: Study of plant genomes and their interactions with the environment. 47. Autoimmunomics**: Study of the molecular mechanisms underlying autoimmune diseases. 48. Agrigenomics**: Application of genomics in agriculture to improve crop and livestock production. 49. Thermogenomics**: Study of the genetic basis of thermoregulation and heat production in organisms. 50. Biome omics**: Study of the genetic and molecular makeup of whole biomes (large ecological areas). 51. Metagenomics**: Study of genetic material recovered directly from environmental samples, bypassing the need for isolating and culturing individual species. 52. Astrobiomics**: Study of potential life and biological molecules in space environments. 53. Connectomics**: Study of the comprehensive maps of neural connections in the brain. 54. Kinomics**: Study of kinases and their roles in cellular signaling. 55. Phenomics**: Study of phenotypes on an omics scale, capturing the physical and biochemical traits of organisms. 56. Glycoproteomics**: Study of glycoproteins, which are proteins with carbohydrate groups attached. 57. Nutriproteomics**: Study of the effects of nutrients on the proteome. 58. Epitranscriptomics**: Study of chemical modifications on RNA molecules and their impact on gene expression and function. 59. Glycolipidomics**: Study of glycolipids, complex molecules consisting of carbohydrates and lipids. 60. Endocrinomics**: Study of the endocrine system and hormone-related omics data. 61. Psychomics**: Study of the molecular basis of psychological and psychiatric conditions. 62. Interactomics**: Comprehensive study of all molecular interactions in a cell. 63. Distributomics**: Study of the distribution patterns of molecules within cells or organisms. 64. Pangenomics**: Study of the complete set of genes within a species, including core and accessory genes. 65. Adaptomics**: Study of adaptive changes in organisms at the molecular level. 66. Seromics**: Study of serum proteins and metabolites. 67. Neuroproteomics**: Study of the proteome of the nervous system. 68. Phytochemomics**: Study of the complex chemical compounds in plants. 69. Agingomics**: Study of the molecular and genetic factors involved in aging. 70. Radiogenomics**: Study of the relationship between genetic variation and response to radiation therapy. 71. Immunogenomics**: Study of the genetic basis of immune system function and diversity. 72. Biogeomics**: Study of the genomic basis of biodiversity and ecosystem function. 73. Virogenomics**: Study of viral genomes and their interactions with host organisms. 74. Dermomics**: Study of the molecular and genetic aspects of skin biology. 75. Allergomics**: Study of the molecular and genetic basis of allergic reactions. 76. Plantomics**: Comprehensive study of plant biology using omics approaches. 77. Oceanomics**: Study of marine organisms and ecosystems using omics technologies. 78. Parasite genomics**: Study of the genomes of parasitic organisms. 79. Aquaculture omics**: Application of omics technologies to improve aquaculture practices. 80. Epigenomics**: Study of the complete set of epigenetic modifications on the genetic material of a cell. 81. Pathophysiomics**: Study of the molecular and cellular mechanisms of disease processes. 82. Quantum omics**: Study of quantum mechanical properties of biological molecules and their influence on biological functions. 83. Thermogenomics**: Study of the genetic basis of temperature regulation in organisms. 84. Chronomics**: Study of biological rhythms and their molecular bases. 85. Syntheomics**: Study of synthetic biology approaches using omics data to design and construct new biological parts, devices, and systems. 86. Holobiont omics**: Study of the omics data of a host and its associated microbiota as a single ecological unit. 87. Ecophysiomics**: Study of the interactions between the physiological functions of organisms and their environment at an omics level. 88. Resistomics**: Study of antibiotic resistance genes and their mechanisms. 89. Aptameromics**: Study of aptamers, short DNA or RNA molecules that bind to specific targets, and their applications. 90. Virulomics**: Study of virulence factors and mechanisms of pathogenicity in microbes. 91. Mycomics**: Study of fungal genomes and their biological functions. 92. Photomics**: Study of the interaction between light and biological systems. 93. Nanonics**: Study of nanomaterials and their interactions with biological systems using omics approaches. 94. Allergenomics**: Study of allergens and the molecular basis of allergic responses. 95. Xenobiomics**: Study of the effects of foreign substances (xenobiotics) on biological systems. 96. Physiomics**: Study of the physiological aspects of biological systems at an omics scale. 97. Psychogenomics**: Study of the genetic and molecular basis of psychological traits and disorders. 98. Methylomics**: Study of DNA methylation patterns and their effects on gene expression. 99. Cardiomics**: Study of the molecular and genetic basis of cardiovascular function and diseases. 100. Degradomics**: Study of the proteolytic processes and protein degradation pathways. 101. Astrobiomics**: Study of the potential for life and biological processes in extraterrestrial environments. 102. Geonomics**: Study of the genetic basis of geological and geobiological processes. 103. Radiomics**: Study of the quantifiable features of medical images and their association with clinical outcomes. 104. Biome omics**: Study of the genetic, molecular, and ecological interactions within biomes. 105. Allosteromics**: Study of allosteric sites and their regulatory roles in protein function. 106. Biothermodynamics**: Study of the thermodynamic properties of biological molecules and systems using omics approaches. 107. Anthropomics**: Study of human diversity and evolution using omics data. 108. Connectomics**: Study of neural connections within the brain and nervous system. 109. Autophagomics**: Study of the autophagy process at an omics level. 110. Photogenomics**: Study of the effects of light on gene expression and cellular functions. 111. Aeroomics**: Study of airborne biological particles and their impact on health and environment. 112. Epitranscriptomics**: Study of chemical modifications on RNA molecules and their impact on gene expression and function. 113. Radiogenomics**: Study of the relationship between genomic features and response to radiation therapy. 114. Nephromics**: Study of the kidneys and their functions at a molecular level. 115. Dermatomics**: Study of the skin and its molecular composition and functions. 116. Xenomics**: Study of the effects and interactions of foreign genetic material introduced into an organism. 117. MicroRNAomics**: Study of microRNAs and their roles in regulating gene expression. 118. Synthetic omics**: Study and design of synthetic biological systems using omics data. 119. Environomics**: Study of the interactions between organisms and their environment using omics technologies. 120. Paleomics**: Study of ancient biological materials and their molecular information. 121. Regulomics**: Study of regulatory networks and their roles in gene expression. 122. Pathobiomics**: Study of disease pathways and mechanisms at an omics scale. 123. Evolvomics**: Study of evolutionary processes and patterns using omics data. 124. Thermobiomics**: Study of the effects of temperature on biological molecules and systems. 125. Circadiomics**: Study of circadian rhythms and their molecular underpinnings. 126. Nanomics**: Study of nanoscale biological processes and materials. 127. Metaproteomics**: Study of the collective protein content in environmental samples. 128. Biomechanics omics**: Study of the mechanical properties of biological molecules and systems. 129. Cancer omics**: Study of the molecular basis of cancer, including oncogenomics and cancer proteomics. 130. Synthetic biology omics**: Application of omics technologies to design and construct new biological parts, devices, and systems. 131. Gutomics**: Study of the gut microbiome and its interactions with the host. 132. Nutrigenomics**: Study of the relationship between nutrition and the genome. 133. Plant omics**: Comprehensive study of plant biology using omics approaches. 134. Infectomics**: Study of the molecular mechanisms of infectious diseases. 135. Microbiomics**: Study of microbial communities and their functions. 136. Sexomics**: Study of the molecular basis of sex differences in biology. 137. Biomechanomics**: Study of the interaction between mechanical forces and biological systems. 138. Neurogenomics**: Study of the genetic basis of neurological functions and disorders. 139. Omeomics**: Study of the relationships and interactions between different omes (genome, proteome, etc.). 140. Immunotranscriptomics**: Study of the transcriptome of immune cells. 141. Nervomics**: Study of the nervous system and its molecular components. 142. Embryomics**: Study of the molecular and genetic processes during embryonic development. 143. Agingomics**: Study of the molecular basis of aging. 144. Photoproteomics**: Study of proteins involved in light sensing and response. 145. Hematomics**: Study of the molecular composition and function of blood. 146. Biophotonics omics**: Study of the interaction of light with biological materials at an omics level. 147. Anatomics**: Study of the molecular basis of anatomical structures. 148. Mycobiomics**: Study of fungal communities and their interactions with the host or environment. 149. Pathogenomics**: Study of the genomes of pathogens. 150. Symbiomics**: Study of symbiotic relationships at the molecular level. 151. Aquomics**: Study of aquatic organisms and their molecular biology. 152. Bacteriomics**: Study of bacteria and their genomes. 153. Biomarkeromics**: Study of biomarkers using omics technologies for disease detection and monitoring. 154. Cardiomics**: Study of the cardiovascular system at a molecular level. 155. Cellomics**: Study of cell structure, function, and behavior using high-throughput methods. 156. Chemogenomics**: Study of the genomic response to chemical compounds. 157. Cryomics**: Study of biological molecules and systems under low-temperature conditions. 158. Distributomics**: Study of the spatial distribution of molecules within cells or tissues. 159. Ecosystem omics**: Study of entire ecosystems using omics approaches. 160. Energetics omics**: Study of the energy flow and metabolism in biological systems. 161. Gastroomics**: Study of the gastrointestinal system and its microbiota. 162. Genetherapeutics omics**: Study of gene therapy approaches and their effects at an omics level. 163. Hormonomics**: Study of hormones and their molecular pathways. 164. Hydratomics**: Study of the hydration state of biological molecules and systems. 165. Inflamomics**: Study of inflammation and its molecular pathways. 166. Metalloproteomics**: Study of metalloproteins and their roles in biology. 167. Morphomics**: Study of the shape and structure of organisms and their molecular basis. 168. Nervomics**: Study of the nervous system and its molecular composition. 169. Neurochemomics**: Study of the chemical processes in the nervous system. 170. Nutriomics**: Study of the interactions between nutrients and the genome. 171. Ocularomics**: Study of the eye and its molecular biology. 172. Optogenomics**: Study of the genetic basis of light perception and response. 173. Organomics**: Study of specific organs at a molecular level. 174. Parasitomics**: Study of parasites and their interactions with hosts. 175. Pathophenomics**: Study of disease phenotypes and their molecular basis. 176. Pharmacomics**: Study of drugs and their effects on the genome and proteome. 177. Polyomics**: Study of the complex interactions between multiple omes (genome, proteome, etc.). 178. Psychomics**: Study of the molecular basis of psychological traits and disorders. 179. Pulmonomics**: Study of the lungs and respiratory system at a molecular level. 180. Reproductomics**: Study of reproductive systems and their molecular biology. 181. Respiromics**: Study of the respiratory system and its molecular functions. 182. Selenomics**: Study of the role of selenium in biology. 183. Sexomics**: Study of the molecular basis of sex differences and sexual development. 184. Spatiomics**: Study of the spatial distribution of molecules within biological systems. 185. Sportomics**: Study of the molecular basis of sports performance and physical activity. 186. Stemcellomics**: Study of stem cells and their molecular properties. 187. Stromomics**: Study of the stroma, the supportive tissue in organs, and its molecular components. 188. Subcellomics**: Study of the molecular composition of subcellular compartments. 189. Synaptomics**: Study of synapses and their molecular components. 190. Toxinomics**: Study of toxins and their effects on the genome and proteome. 191. Traumomics**: Study of the molecular basis of trauma and injury. 192. Vascularomics**: Study of the vascular system and its molecular biology. 193. Virosomomics**: Study of the structure and function of viral particles. 194. Zoonomics**: Study of zoonotic diseases and their molecular basis.

86.172.165.182 (talk) 13:22, 5 January 2025 (UTC)