Literature DB >> 19536480

Fluoresceinated peanut agglutinin (PNA) is a marker for live O(2) sensing glomus cells in rat carotid body.

I Kim1, D J Yang, D F Donnelly, J L Carroll.   

Abstract

Experiments using live dissociated carotid body (CB) cells for patch clamping, [Ca(++)](i) or other measurements require positive identification of the cell being recorded. At present, cell morphology is usually employed, but several cell types within the carotid body evidence similar morphologic characteristics. Therefore, we sought to develop a method utilizing a vital dye to identify glomus cells before and during experiments that require live cells, such as patch clamp studies. It was previously reported that the binding sites for peanut agglutinin (PNA) were highly expressed by all neuroendocrine-derivatives of the sympathoadrenal neural crest, including glomus cells, small, intensely fluorescent cells, PC-12 cells, and adrenal chromaffin cells in situ (katz et al. 1995). By utilizing the binding characteristics of galactose-specific lectin peanut agglutinin (PNA) on the outer cell membrane, we tested the possibility that the fluoresceinated PNA may preferentially bind to CB glomus cells. The results to date show: (1) Rhodamine tagged PNA (Rhod-PNA) binds to the live dissociated glomus cells in less than one hour incubation and can be visualized in superfused cells; (2) Rhod-PNA labeled cells are perfectly matched with tyrosine hydroxylase (TH) positive glomus cells; (3) Rhod-PNA did not interfere with Fura-2 for Ca(++) imaging; (4) Rhod-PNA bound to glomus cells in [Ca(++)](i) studies does not affect O(2) response of glomus cells. Thus fluoresceinated PNA may be a useful marker for live CB glomus studies, without adversely affecting their physiologic response.

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Year:  2009        PMID: 19536480      PMCID: PMC2958663          DOI: 10.1007/978-90-481-2259-2_21

Source DB:  PubMed          Journal:  Adv Exp Med Biol        ISSN: 0065-2598            Impact factor:   2.622


  10 in total

1.  Expression of tandem P domain K+ channel, TREK-1, in the rat carotid body.

Authors:  Y Yamamoto; K Taniguchi
Journal:  J Histochem Cytochem       Date:  2005-12-12       Impact factor: 2.479

Review 2.  Cellular mechanisms of oxygen chemoreception in the carotid body.

Authors:  C Gonzalez; J R Lopez-Lopez; A Obeso; M T Perez-Garcia; A Rocher
Journal:  Respir Physiol       Date:  1995-12

Review 3.  Carotid body chemoreceptors: from natural stimuli to sensory discharges.

Authors:  C Gonzalez; L Almaraz; A Obeso; R Rigual
Journal:  Physiol Rev       Date:  1994-10       Impact factor: 37.312

Review 4.  Postnatal development of carotid body glomus cell O2 sensitivity.

Authors:  John L Carroll; Insook Kim
Journal:  Respir Physiol Neurobiol       Date:  2005-11-15       Impact factor: 1.931

Review 5.  Cellular mechanism of oxygen sensing.

Authors:  J Lopez-Barneo; R Pardal; P Ortega-Sáenz
Journal:  Annu Rev Physiol       Date:  2001       Impact factor: 19.318

6.  Immunoelectron microscopic localization of vimentin in sustentacular cells of the carotid body and the adrenal medulla of guinea pigs.

Authors:  Y Kameda
Journal:  J Histochem Cytochem       Date:  1996-12       Impact factor: 2.479

7.  Mash1 is required for glomus cell formation in the mouse carotid body.

Authors:  Yoko Kameda
Journal:  Dev Biol       Date:  2005-07-01       Impact factor: 3.582

8.  Immunohistochemical characterization of the rat carotid body.

Authors:  Amaya Izal-Azcárate; Silvia Belzunegui; Waldy San Sebastián; Pablo Garrido-Gil; Marianne Vázquez-Claverie; Berta López; Irene Marcilla; M A Rosario Luquin
Journal:  Respir Physiol Neurobiol       Date:  2008-01-08       Impact factor: 1.931

9.  Activities of lectins and their immobilized derivatives in detergent solutions. Implications on the use of lectin affinity chromatography for the purification of membrane glycoproteins.

Authors:  R Lotan; G Beattie; W Hubbell; G L Nicolson
Journal:  Biochemistry       Date:  1977-05-03       Impact factor: 3.162

10.  Lectin binding distinguishes between neuroendocrine and neuronal derivatives of the sympathoadrenal neural crest.

Authors:  D M Katz; M E White; A K Hall
Journal:  J Neurobiol       Date:  1995-02
  10 in total
  5 in total

Review 1.  Peripheral chemoreceptors: function and plasticity of the carotid body.

Authors:  Prem Kumar; Nanduri R Prabhakar
Journal:  Compr Physiol       Date:  2012-01       Impact factor: 9.090

2.  Non-additive interactions between mitochondrial complex IV blockers and hypoxia in rat carotid body responses.

Authors:  David F Donnelly; Insook Kim; Eileen M Mulligan; John L Carroll
Journal:  Respir Physiol Neurobiol       Date:  2013-10-02       Impact factor: 1.931

3.  Increase in cytosolic Ca2+ produced by hypoxia and other depolarizing stimuli activates a non-selective cation channel in chemoreceptor cells of rat carotid body.

Authors:  Dawon Kang; Jiaju Wang; James O Hogan; Rudi Vennekens; Marc Freichel; Carl White; Donghee Kim
Journal:  J Physiol       Date:  2014-03-03       Impact factor: 5.182

4.  Bicarbonate-sensitive soluble and transmembrane adenylyl cyclases in peripheral chemoreceptors.

Authors:  Ana R Nunes; Andrew P S Holmes; Vedangi Sample; Prem Kumar; Martin J Cann; Emília C Monteiro; Jin Zhang; Estelle B Gauda
Journal:  Respir Physiol Neurobiol       Date:  2013-05-31       Impact factor: 1.931

Review 5.  Cellular basis of learning and memory in the carotid body.

Authors:  Olivia M S Gold; Emma N Bardsley; Anna P Ponnampalam; Audrys G Pauza; Julian F R Paton
Journal:  Front Synaptic Neurosci       Date:  2022-08-15
  5 in total

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