Search Results - "Naeve, Gregory S"

  • Showing 1 - 16 results of 16
Refine Results
  1. 1

    Fractalkine (CX3CL1) and fractalkine receptor (CX3CR1) distribution in spinal cord and dorsal root ganglia under basal and neuropathic pain conditions by Verge, Gail M., Milligan, Erin D., Maier, Steve F., Watkins, Linda R., Naeve, Gregory S., Foster, Alan C.

    Published in The European journal of neuroscience (01-09-2004)
    “…Fractalkine is a unique chemokine reported to be constitutively expressed by neurons. Its only receptor, CX3CR1, is expressed by microglia. Little is known…”
    Get full text
    Journal Article
  2. 2

    Neuritin: A Gene Induced by Neural Activity and Neurotrophins that Promotes Neuritogenesis by Naeve, Gregory S., Ramakrishnan, Meena, Kramer, Rainer, Hevroni, Dana, Citri, Yoav, Theill, Lars E.

    “…Neural activity and neurotrophins induce synaptic remodeling in part by altering gene expression. A cDNA encoding a glycosylphoshatidylinositol-anchored…”
    Get full text
    Journal Article
  3. 3

    Potent imidazole and triazole CB1 receptor antagonists related to SR141716 by DYCK, Brian, GOODFELLOW, Val S, PHILLIPS, Teresa, GREY, Jonathan, HADDACH, Mustapha, ROWBOTTOM, Martin, NAEVE, Gregory S, BROWN, Brock, SAUNDERS, John

    Published in Bioorganic & medicinal chemistry letters (08-03-2004)
    “…Diarylimidazolecarboxamides and diaryltriazolecarboxamides related to SR141716 were synthesized and tested for binding to the human CB(1) receptor. Suitably…”
    Get full text
    Journal Article
  4. 4

    Identification of differentially expressed genes induced by transient ischemic stroke by Schwarz, David A, Barry, Guy, Mackay, Kenneth B, Manu, Frank, Naeve, Gregory S, Vana, Alicia M, Verge, Gail, Conlon, Paul J, Foster, Alan C, Maki, Richard A

    Published in Brain research. Molecular brain research. (30-05-2002)
    “…We have used a rat model of focal cerebral ischemia to investigate changes in gene expression that occur during stroke. To monitor these changes, we employed…”
    Get full text
    Journal Article
  5. 5

    Neuroprotective Effects of Insulin-Like Growth Factor-Binding Protein Ligand Inhibitors in Vitro and in Vivo by Mackay, Kenneth B, Loddick, Sarah A, Naeve, Gregory S, Vana, Alicia M, Verge, Gail M, Foster, Alan C

    “…The role of brain insulin-like growth factors (IGFs) and IGF binding proteins (IGFBPs) in neuroprotection was further investigated using in vitro and in vivo…”
    Get full text
    Journal Article
  6. 6
  7. 7

    Expression of rat insulin-like growth factor binding protein-6 in the brain, spinal cord, and sensory ganglia by Naeve, Gregory S, Vana, Alicia M, Eggold, Joelle R, Verge, Gail, Ling, Nicholas, Foster, Alan C

    Published in Brain research. Molecular brain research. (22-02-2000)
    “…Insulin-like growth factors (IGFs) are important trophic factors during development as well as in the adult or damaged nervous system. Their trophic actions…”
    Get full text
    Journal Article
  8. 8

    Temporal events regulating the early phases of the mammalian cell cycle by Naeve, G S, Sharma, A, Lee, A S

    Published in Current opinion in cell biology (01-04-1991)
    “…It is proposed that the regulation of the pathways directing mammalian cell cycle progression involves several oncogenes. A summary of what is known about some…”
    Get more information
    Journal Article
  9. 9

    Temporal regulation of cyclin A-p107 and p33(cdk2) complexes binding to a human thymidine kinase promoter element important for G(1)-S phase transcriptional regulation by Li-Jing, Li, Naeve, Gregory S, Lee, Amy S

    “…The cyclins are an extensive family of proteins whose cell cycle-dependent synthesis is postulated to control multiple events during the cell cycle, and in…”
    Get full text
    Journal Article
  10. 10

    Temporal Regulation of Cyclin A-p107 and p33cdk2Complexes Binding to a Human Thymidine Kinase Promoter Element Important for G1-S Phase Transcriptional Regulation by Li-Jing Li, Naeve, Gregory S., Lee, Amy S.

    “…The cyclins are an extensive family of proteins whose cell cycle-dependent synthesis is postulated to control multiple events during the cell cycle. The…”
    Get full text
    Journal Article
  11. 11

    Identification of a 68 kDa protein species as a specific DNA-binding component of the H3abp complex interacting with the histone H3.2 G1/S regulatory domain by Naeve, Gregory S., Zhou, Yanhong, Lee, Amy S.

    Published in Nucleic acids research (11-02-1995)
    “…The hamster histone H3.2 promoter contains a protein binding site (referred to as site X) required for G1/S transcriptional activation. We report here that…”
    Get full text
    Journal Article
  12. 12
  13. 13

    A phase 1a clinical trial of LYM-1 monoclonal antibody serotherapy in patients with refractory B cell malignancies by Hu, E, Epstein, A L, Naeve, G S, Gill, I, Martin, S, Sherrod, A, Nichols, P, Chen, D, Mazumder, A, Levine, A M

    Published in Hematological oncology (01-03-1989)
    “…Ten patients with refractory B cell lymphomas were treated with weekly intravenous infusions of escalating doses of murine monoclonal antibody (MoAb) LYM-1…”
    Get more information
    Journal Article
  14. 14

    Immunohistochemical Characterization of a 183 KD Myeloid-Specific–DNA-Binding Protein in B5 Fixed, Paraffin-Embedded Tissues, and Bone Marrow Aspirates by Monoclonal Antibody BM-1 by Epstein, Alan L., Samoszuk, Michael, Stathopoulos, Efstathios, Naeve, Gregory S., Clevenger, Charles V., Weil, Susan, Marder, Robert J.

    Published in Blood (01-10-1987)
    “…A monoclonal antibody, designated BM-1, which is reactive in B5 formalin-fixed, paraffin-embedded tissues, has been generated against a cytoplasmic and nuclear…”
    Get full text
    Journal Article
  15. 15
  16. 16

    Immunologic and biochemical analysis of TNT-1 and TNT-2 monoclonal antibody binding to histones by Miller, G K, Naeve, G S, Gaffar, S A, Epstein, A L

    Published in Hybridoma (01-12-1993)
    “…Two novel murine monoclonal antibodies that bind to intracellular antigens, designated TNT-1 and TNT-2, have been generated by immunizing mice with nuclear…”
    Get more information
    Journal Article