Search Results - "Redenti, S."

  • Showing 1 - 14 results of 14
Refine Results
  1. 1

    Self‐degradable curcumin polymer with anti‐cancer activity by O'Connor, N. A., Einbond, L. S., Redenti, S., Sauane, M., Jitianu, A.

    Published in Journal of applied polymer science (15-12-2018)
    “…ABSTRACT Curcumin is a widely researched and utilized natural product used for a variety of ailments, including as a gastrointestinal aide and an anticancer…”
    Get full text
    Journal Article
  2. 2

    Traditional preparations of kava (Piper methysticum) inhibit the growth of human colon cancer cells in vitro by Einbond, L.S., Negrin, A., Kulakowski, D.M., Wu, H.-A., Antonetti, V., Jalees, F., Law, W., Roller, M., Redenti, S., Kennelly, E.J., Balick, M.J.

    Published in Phytomedicine (Stuttgart) (15-01-2017)
    “…Background: Epidemiological studies indicate there is low incidence of colon cancer in the South Pacific islands, including Fiji, West Samoa, and Vanuatu…”
    Get full text
    Journal Article
  3. 3

    Zinc Chelation Enhances the Sensitivity of the ERG b-Wave in Dark-Adapted Skate Retina by Redenti, S., Chappell, R. L.

    Published in The Biological bulletin (Lancaster) (01-10-2003)
    “…Redenti et al discusses the studies of the effect of histidine on the retina of the skate, Raja erinacea, indicating that application of this zinc chelator…”
    Get full text
    Journal Article
  4. 4

    Endogenous Zinc as a Neuromodulator in Vertebrate Retina: Evidence from the Retinal Slice by Chappell, Richard L., Redenti, Stephen

    Published in The Biological bulletin (Lancaster) (01-10-2001)
    “…By acting on the receptor terminal to reduce calcium entry, zinc could serve as a feedback signal to modulate transmitter release. If this is the case, one…”
    Get full text
    Journal Article
  5. 5

    Engineering retinal progenitor cell and scrollable poly(glycerol-sebacate) composites for expansion and subretinal transplantation by Redenti, Stephen, Neeley, William L, Rompani, Santiago, Saigal, Sunita, Yang, Jing, Klassen, Henry, Langer, Robert, Young, Michael J

    Published in Biomaterials (01-07-2009)
    “…Abstract Retinal degenerations cause permanent visual loss and affect millions world-wide. Presently, a novel treatment highlights the potential of using…”
    Get full text
    Journal Article
  6. 6

    A microfabricated scaffold for retinal progenitor cell grafting by Neeley, William L, Redenti, Stephen, Klassen, Henry, Tao, Sarah, Desai, Tejal, Young, Michael J, Langer, Robert

    Published in Biomaterials (01-02-2008)
    “…Abstract Diseases that cause photoreceptor cell degeneration afflict millions of people, yet no restorative treatment exists for these blinding disorders…”
    Get full text
    Journal Article
  7. 7

    Survival, migration and differentiation of retinal progenitor cells transplanted on micro-machined poly(methyl methacrylate) scaffolds to the subretinal space by Tao, Sarah, Young, Conan, Redenti, Stephen, Zhang, Yiqin, Klassen, Henry, Desai, Tejal, Young, Michael J

    Published in Lab on a chip (2007)
    “…Stem and progenitor cells can be combined with polymer substrates to generate tissue equivalents in culture. The replacement of retinal tissue lost to disease…”
    Get more information
    Journal Article
  8. 8

    The use of progenitor cell/biodegradable MMP2–PLGA polymer constructs to enhance cellular integration and retinal repopulation by Tucker, Budd A, Redenti, Stephen M, Jiang, Caihui, Swift, Jesse S, Klassen, Henry J, Smith, Meghan E, Wnek, Gary E, Young, Michael J

    Published in Biomaterials (01-01-2010)
    “…Abstract The inability of the adult mammalian retina to regenerate can be partly attributed to the expression of injury-induced inhibitory extracellular matrix…”
    Get full text
    Journal Article
  9. 9

    Localization of zinc transporter-3 (ZnT-3) in mouse retina by Redenti, Stephen, Chappell, Richard L.

    Published in Vision research (Oxford) (01-12-2004)
    “…Studies of the central nervous system have localized the zinc-transporter-3 (ZnT-3) protein to synaptic vesicles containing glutamate and zinc. We have…”
    Get full text
    Journal Article Conference Proceeding
  10. 10

    Neuroimaging of zinc released by depolarization of rat retinal cells by Redenti, Stephen, Chappell, Richard L.

    Published in Vision research (Oxford) (01-12-2005)
    “…Zinc is associated with glutamatergic pathways in brain and retina, yet its role in neuromodulation remains unknown. High concentrations of reactive zinc in…”
    Get full text
    Journal Article
  11. 11

    Zinc Chelation Enhances the Zebrafish Retinal ERG b-Wave by Redenti, Stephen, Chappell, Richard L.

    Published in The Biological bulletin (Lancaster) (01-10-2002)
    “…Studies in the all-rod retina of the skate support the notion of a role for endogenous zinc as a neuromodulator in the outer retina of vertebrates. Redenti and…”
    Get full text
    Journal Article
  12. 12

    Zinc Transport in Vertebrate Retina by Redenti, Stephen, Chappell, Richard L.

    Published in The Biological bulletin (Lancaster) (01-10-2004)
    “…Zinc transporter-protein-3 (ZnT-3) has six transmembrane domains with a histidine-rich cytoplasmic loop responsible for mediating zinc transport. Studies of…”
    Get full text
    Journal Article
  13. 13

    Membrane Properties of Two Subtypes of Skate Bipolar Cells by Qian, Haohua, Chappell, Richard L., Redenti, Stephen, Ripps, Harris

    Published in The Biological bulletin (Lancaster) (01-10-2004)
    “…Bipolar cells in the vertebrate retina are second order neurons that transmit visual information from rod and cone photoreceptors to the amacrine and ganglion…”
    Get full text
    Journal Article
  14. 14

    Potassium Currents Distinguish the Two Subtypes of Morphologically Distinct Skate Bipolar Cells by Qian, Haohua, Chappell, Richard L., Redenti, Stephen, Ripps, Harris

    Published in The Biological bulletin (Lancaster) (01-12-2004)
    “…Bipolar cells in the vertebrate retina are second-order neurons that convey visual information from photoreceptors to ganglion cells, the neurons that relay…”
    Get full text
    Journal Article