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New Mesh Headings for 2017 Listed in Alphabetical Order with Heading, Scope Note, Annotation (AN), and Tree Locations

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New MeSH Headings for 2017 Listed in alphabetical order with Heading, Scope Note, Annotation (AN), and Tree Locations A549 Cells Abdominal Oblique Muscles An immortalized cell line derived from human Muscles of the anterolateral abdominal wall consisting of the ADENOCARCINOMA, ALVEOLAR basal epithelial cells isolated external oblique and the internal oblique muscles. The external from the lungs of a male patient in 1972. The cell line is positive for abdominal oblique muscle fibers extend from lower thoracic ribs to KERATIN, can synthesize LECITHIN, and contains high levels of the linea alba and the iliac crest. The internal abdominal oblique POLYUNSATURATED FATTY ACIDS in its PLASMA extend superomedially beneath the external oblique muscles. MEMBRANE. It is used as a model for PULMONARY ALVEOLI function and virus infections, as a TRANSFECTION host, and for Tree locations: PRECLINICAL DRUG EVALUATION. Abdominal Muscles A02.633.567.050.375 AN: almost always NIM with no subheadings; check HUMAN; do not routinely add ADENOCARCINOMA, ALVEOLAR Tree locations: Cell Line, Tumor A11.251.210.190.080 A11.251.860.180.080 Epithelial Cells A11.436.054 AC133 Antigen Acute Febrile Encephalopathy A member of the prominin family, AC133 Antigen is a 5- Acute onset of fever accompanied by seizures, cerebral transmembrane antigen occurring as several isoforms produced by inflammation and a change in mental status (e.g., confusion, alternative splicing which are processed into mature forms. In disorientation, and coma). humans, it is expressed as a subset of CD34 (bright) human hematopoietic stem cells and CD34 positive leukemias. Tree locations: Functionally, it is associated with roles in cell differentiation, Brain Diseases C10.228.140.021 proliferation, and apoptosis. Specifically, it regulates the organization of apical plasma membrane in epithelial cells, disk morphogenesis during early retinal development, MAPK and Akt signaling pathways, and in cholesterol metabolism. Tree locations: Antigens, CD D23.050.301.264.035.015 D23.101.100.110.015 Glycoproteins D09.400.430.250 Acute Retroviral Syndrome ADAM10 Protein Early stage of HIV infection. Symptoms resemble INFLUENZA or A disintegrin and metalloproteinase domain-containing protein. It INFECTIOUS MONONUCLEOSIS. cleaves the membrane-bound precursor of TUMOR NECROSIS FACTOR-ALPHA between ALANINE 76 and VALINE 77 to its Tree locations: functional form, as well as several other CELL SURFACE HIV Infections C02.782.815.616.400.044 PROTEINS to their soluble forms, including AMYLOID BETA- C02.800.801.400.044 PROTEIN PRECURSOR and PRION PROTEIN. C20.673.480.044 Tree locations: ADAM Proteins D08.811.277.656.675.374.102.250 D09.400.430.500.250 D12.776.395.033.250 Antigens, CD D23.050.301.264.035.048 D23.101.100.110.048 New MeSH Headings for 2017 Listed in alphabetical order with Heading, Scope Note, Annotation (AN), and Tree Locations ADAM12 Protein ADAM17 Protein A disintegrin and metalloproteinase domain-containing protein that A disintegrin and metalloproteinase domain-containing protein that is expressed as two alternatively-spliced forms: a long cleaves the membrane-bound precursor of TUMOR NECROSIS transmembrane form (ADAM12-L) and a short soluble form FACTOR-ALPHA to its mature form. It cleaves several other (ADAM12-S). It modulates the cleavage of INSULIN-LIKE CELL SURFACE PROTEINS, including INTERLEUKIN-1 GROWTH FACTOR BINDING PROTEINS and may also regulate RECEPTOR TYPE II; TRANSFORMING GROWTH FACTOR CELL FUSION during MYOGENESIS. ALPHA; L-SELECTIN; MUCIN-1; and AMYLOID BETA- PROTEIN PRECURSOR. It can also function as an activator of the Tree locations: Notch signaling pathway by mediating the cleavage of NOTCH ADAM Proteins D08.811.277.656.675.374.102.125 RECEPTORS. D09.400.430.500.125 D12.776.395.033.125 Tree locations: ADAM Proteins D08.811.277.656.675.374.102.375 D09.400.430.500.375 D12.776.395.033.375 Antigens, CD D23.050.301.264.035.057 D23.101.100.110.057 ADAMTS Proteins ADAMTS1 Protein A subfamily of ADAM proteases that are distinguished by the An ADAMTS protease that contains two disintegrin loops and three presence of one or more THROMBOSPONDIN type-1 repeats C-terminal thrombospondin (TS) motifs. It functions as an (TSRs). These are three-strand motifs that contain characteristic ANGIOGENESIS INHIBITOR as well as in normal tissue growth TRYPTOPHAN, ARGININE, and CYSTEINE residues and fertility. respectively. In contrast to ADAM proteins, which reside on CELL MEMBRANES, ADAMTS proteases are secreted and function in Tree locations: the EXTRACELLULAR MATRIX. ADAMTS Proteins D08.811.277.656.675.374.102.500.500 D09.400.430.500.500.500 Tree locations: D12.776.395.033.500.500 ADAM Proteins D08.811.277.656.675.374.102.500 D12.776.860.300.085.500 D09.400.430.500.500 D12.776.395.033.500 Extracellular Matrix D12.776.860.300.085 Proteins ADAMTS13 Protein ADAMTS4 Protein An ADAMTS protease that contains eight thrombospondin (TS) An ADAMTS protease similar to ADAMTS5 PROTEIN. It contains motifs. It cleaves VON WILLEBRAND FACTOR to control vWF- a single C-terminal thrombospondin (TS) motif and cleaves mediated THROMBOSIS. Mutations in the ADAMTS13 gene have AGGRECAN in CARTILAGE. It may also be involved in the been identified in familial cases of PURPURA, THROMBOTIC destruction of aggrecan in ARTHRITIS. THROMBOCYTOPENIC and defects in ADAMTS13 activity are associated with MYOCARDIAL INFARCTION; BRAIN Tree locations: ISCHEMIA; PRE-ECLAMPSIA; and MALARIA. ADAMTS Proteins D08.811.277.656.675.374.102.500.844 D09.400.430.500.500.844 Tree locations: D12.776.395.033.500.844 ADAMTS Proteins D08.811.277.656.675.374.102.500.813 D12.776.860.300.085.844 D09.400.430.500.500.813 D12.776.395.033.500.813 D12.776.860.300.085.813 ADAMTS5 Protein ADAMTS7 Protein An ADAMTS protease that contains two C-terminal An ADAMTS protease that contains four central and four C- thrombospondin (TS) motifs. It functions primarily as an terminal thrombospondin (TS) motifs. It binds to and degrades aggrecanase, cleaving AGGRECAN in CARTILAGE, and may be CARTILAGE OLIGOMERIC MATRIX PROTEIN. involved in the destruction of aggrecan in ARTHRITIS. Tree locations: Tree locations: ADAMTS Proteins D08.811.277.656.675.374.102.500.937 ADAMTS Proteins D08.811.277.656.675.374.102.500.875 D09.400.430.500.500.937 D09.400.430.500.500.875 D12.776.395.033.500.937 D12.776.395.033.500.875 D12.776.860.300.085.937 D12.776.860.300.085.875 New MeSH Headings for 2017 Listed in alphabetical order with Heading, Scope Note, Annotation (AN), and Tree Locations ADAMTS9 Protein Adipocytes, Beige An ADAMTS protease that contains 15 THROMBOSPONDIN Brown fat-like cells that develop in the WHITE FAT from non- (TS) motifs. It cleaves the PROTEOGLYCANS AGGRECAN and MYOGENIC REGULATORY FACTOR 5 expressing CELL VERSICAN and also functions in protein transport from the LINEAGE. ENDOPLASMIC RETICULUM to the GOLGI APPARATUS. Tree locations: Tree locations: Adipocytes A11.329.114.125 ADAMTS Proteins D08.811.277.656.675.374.102.500.968 D09.400.430.500.500.968 D12.776.395.033.500.968 D12.776.860.300.085.968 Adipose Tissue, Beige Adult Germline Stem Cells Brown fat-like adipose tissue that develops in WHITE ADIPOSE Progenitor stem cells found in the testicles. TISSUE from non-MYOGENIC REGULATORY FACTOR 5 expressing cell lineage. Tree locations: Adult Stem Cells A11.872.040.250 Tree locations: Adipose Tissue A10.165.114.161 Aeromonas veronii Alaska Natives A species of Aeromonas that occurs mostly as single cells in soil Persons having origins in any indigenous people of ALASKA and and freshwater environments. It also inhabits the digestive tract of their descendants and who maintain tribal affiliation, or community the leech HIRUDO MEDICINALIS, where it aids in the digestion or cultural attachment. of blood and prevents colonization by other bacteria. It is AN: specify ethnic group if pertinent; do not confuse with pathogenic in fish and potentially in humans who consume infected INUITS fish or immunocompromised patients receiving LEECH THERAPY. Tree locations: AN: infection: coordinate IM with GRAM-NEGATIVE American Native Continental Ancestry M01.686.508.150.288 BACTERIAL INFECTIONS (IM) Group Tree locations: Aeromonas B03.440.450.019.025.845 B03.660.250.017.025.845 Aldehyde Dehydrogenase, Mitochondrial Alert Fatigue, Health Personnel An aldehyde dehydrogenase expressed in the mitochondrial matrix Mental fatigue experienced by health care providers who encounter that is essential for the metabolism of ETHANOL. numerous alerts and reminders from the use of CLINICAL DECISION SUPPORT SYSTEMS. As the numbers of alerts and Tree locations: reminders designed to provide meaningful assistance to the patient Aldehyde Dehydrogenase D08.811.682.657.163.249.375 care process increases, many health personnel may ignore them. Mitochondrial Proteins D12.776.575.093 Tree locations: Attitude of Health Personnel F01.100.050.500 N05.300.100.169 Mental Fatigue C23.888.369.500.250 F01.145.126.937.250 Quality Assurance, Health Care N04.761.700.075 N05.700.075 New MeSH Headings for 2017 Listed in alphabetical order with Heading, Scope Note, Annotation (AN), and Tree Locations AlkB Enzymes AlkB Homolog 1, Histone H2a Dioxygenase A family of alpha- KETOGLUTARIC ACID and Fe(II)-dependent A dioxygenase and alkylation repair homolog that functions by dioxygenases that are homologous to AlkB, an enzyme that repairs oxidative demethylation in RNA and DNA REPAIR of substrates alkylated nucleic acids in E. coli. The mammalian homologs have which contain 3-methylcytosine. It also functions as one of the diverse substrate specificities and functions that include DNA HISTONE DEMETHYLASES involved in embryonic development REPAIR, generating unique wobble modifications in URIDINE and maintaining the pluripotency of EMBRYONIC STEM CELLS. tRNA, demethylation of nucleotides in DNA and RNA, and demethylation of LYSINE residues on certain proteins, including Tree locations: ACTIN and histones (HISTONE CODE).
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    The Pennsylvania State University The Graduate School Intercollege Graduate Degree Program in Physiology THE IMPACT OF ZINC DEFICIENCY DURING OOGENESIS, FOLLICLE ASSEMBLY, AND GROWTH A Dissertation in Integrative and Biomedical Physiology by James M. Hester 2018 James Hester Submitted in Partial Fulfillment of the Requirements for the Degree of Doctor of Philosophy December 2018 ii The dissertation of James Hester was reviewed and approved* by the following: Francisco J. Diaz Associate Professor of Reproductive Biology Dissertation Advisor Chair of Committee Wendy Hanna-Rose Associate Professor and Department Head Biochemistry and Molecular Biology Alan L. Johnson Walther H. Ott Professor in Avian Biology Claire M. Thomas Associate Professor of Biology and Biochemistry and Molecular Biology Donna H. Korzick Professor of Physiology and Kinesiology Chair, Intercollege Graduate Degree Program in Physiology *Signatures are on file in the Graduate School iii ABSTRACT The ovarian follicle is the fundamental unit of the ovary and of female reproduction in mammals. Each follicle contains one oocyte enclosed in somatic cells and follicle number is determined during fetal development in humans. Growth and development of ovarian follicles (folliculogenesis) is necessary to produce viable gametes as well as ovarian hormones including estrogen and progesterone. Folliculogenesis begins in the fetal ovary and may span several decades of life. Environmental and nutritional factors that affect folliculogenesis have the potential to impact health and fertility, and may be a source of new biotechnological innovation. One such factor, zinc, has previously been found to impact the final stages of follicle development including meiotic division, ovulation, epigenetic modification, fertilization, and embryo development. However, the role of zinc during the early stages of folliculogenesis have not been evaluated.
  • FACS-Sorted Putative Oogonial Stem Cells from the Ovary Are Neither

    FACS-Sorted Putative Oogonial Stem Cells from the Ovary Are Neither

    www.nature.com/scientificreports OPEN FACS-sorted putative oogonial stem cells from the ovary are neither DDX4-positive nor germ Received: 30 March 2016 Accepted: 26 May 2016 cells Published: 15 June 2016 Larissa Zarate-Garcia, Simon I. R. Lane, Julie A. Merriman & Keith T. Jones Whether the adult mammalian ovary contains oogonial stem cells (OSCs) is controversial. They have been isolated by a live-cell sorting method using the germ cell marker DDX4, which has previously been assumed to be cytoplasmic, not surface-bound. Furthermore their stem cell and germ cell characteristics remain disputed. Here we show that although OSC-like cells can be isolated from the ovary using an antibody to DDX4, there is no good in silico modelling to support the existence of a surface-bound DDX4. Furthermore these cells when isolated were not expressing DDX4, and did not initially possess germline identity. Despite these unremarkable beginnings, they acquired some pre- meiotic markers in culture, including DDX4, but critically never expressed oocyte-specific markers, and furthermore were not immortal but died after a few months. Our results suggest that freshly isolated OSCs are not germ stem cells, and are not being isolated by their DDX4 expression. However it may be that culture induces some pre-meiotic markers. In summary the present study offers weight to the dogma that the adult ovary is populated by a fixed number of oocytes and that adultde novo production is a rare or insignificant event. The prevailing dogma in the field of reproductive biology for over 60 years has been that the adult mammalian ovary lacks germ stem cells1.
  • Transcriptomic Regulation of Alternative Phenotypic Trajectories in Embryos of the Annual Killifish Austrofundulus Limnaeus

    Transcriptomic Regulation of Alternative Phenotypic Trajectories in Embryos of the Annual Killifish Austrofundulus Limnaeus

    Portland State University PDXScholar Dissertations and Theses Dissertations and Theses Fall 11-30-2017 Transcriptomic Regulation of Alternative Phenotypic Trajectories in Embryos of the Annual Killifish Austrofundulus limnaeus Amie L. Romney Portland State University Follow this and additional works at: https://pdxscholar.library.pdx.edu/open_access_etds Part of the Biology Commons, and the Genetics and Genomics Commons Let us know how access to this document benefits ou.y Recommended Citation Romney, Amie L., "Transcriptomic Regulation of Alternative Phenotypic Trajectories in Embryos of the Annual Killifish Austrofundulus limnaeus" (2017). Dissertations and Theses. Paper 4033. https://doi.org/10.15760/etd.5917 This Dissertation is brought to you for free and open access. It has been accepted for inclusion in Dissertations and Theses by an authorized administrator of PDXScholar. Please contact us if we can make this document more accessible: [email protected]. Transcriptomic Regulation of Alternative Phenotypic Trajectories in embryos of the Annual Killifish Austrofundulus limnaeus by Amie Lynn Thomas Romney A dissertation submitted in partial fulfillment of the requirements for the degree of Doctor of Philosophy in Biology Dissertation Committee Jason Podrabsky, Chair Suzanne Estes Bradley Buckley Todd Rosenstiel Dirk Iwata-Reuyl Portland State University 2017 © 2017 Amie Lynn Thomas Romney ABSTRACT The Annual Killifish, Austrofundulus limnaeus, survives the seasonal drying of their pond habitat in the form of embryos entering diapause midway through development. The diapause trajectory is one of two developmental phenotypes. Alternatively, individuals can “escape” entry into diapause and develop continuously until hatching. The alternative phenotypes of A. limnaeus are a form of developmental plasticity that provides this species with a physiological adaption for surviving stressful environments.