Skip to navigation Skip to content
  • Woodruff
  • Business
  • Health Sciences
  • Law
  • MARBL
  • Oxford College
  • Theology
  • Schools
    • Undergraduate

      • Emory College
      • Oxford College
      • Business School
      • School of Nursing

      Community

      • Emory College
      • Oxford College
      • Business School
      • School of Nursing
    • Graduate

      • Business School
      • Graduate School
      • School of Law
      • School of Medicine
      • School of Nursing
      • School of Public Health
      • School of Theology
  • Libraries
    • Libraries

      • Robert W. Woodruff
      • Business
      • Chemistry
      • Health Sciences
      • Law
      • MARBL
      • Music & Media
      • Oxford College
      • Theology
    • Library Tools

      • Course Reserves
      • Databases
      • Digital Scholarship (ECDS)
      • discoverE
      • eJournals
      • Electronic Dissertations
      • EmoryFindingAids
      • EUCLID
      • ILLiad
      • OpenEmory
      • Research Guides
  • Resources
    • Resources

      • Administrative Offices
      • Emory Healthcare
      • Academic Calendars
      • Bookstore
      • Campus Maps
      • Shuttles and Parking
      • Athletics: Emory Eagles
      • Arts at Emory
      • Michael C. Carlos Museum
      • Emory News Center
      • Emory Report
    • Resources

      • Emergency Contacts
      • Information Technology (IT)
      • Outlook Web Access
      • Office 365
      • Blackboard
      • OPUS
      • PeopleSoft Financials: Compass
      • Careers
      • Human Resources
      • Emory Alumni Association
  • Browse
    • Works by Author
    • Works by Journal
    • Works by Subject
    • Works by Dept
    • Faculty by Dept
  • For Authors
    • How to Submit
    • Deposit Advice
    • Author Rights
    • Publishing Your Data
    • FAQ
    • Emory Open Access Policy
    • Open Access Fund
  • About OpenEmory
    • About OpenEmory
    • About Us
    • Citing Articles
    • Contact Us
    • Privacy Policy
    • Terms of Use
 
Contact Us

Filter Results:

Year

  • 2014 (1)

Author

  • Mitrano, Darlene A. (1)
  • Pare, Jean-Francois (1)
  • Smith, Yoland (1)
  • Weinshenker, David (1)

Subject

  • Biology, Genetics (1)
  • Biology, Neuroscience (1)

Keyword

  • 1 (1)
  • 5 (1)
  • accumben (1)
  • adenylyl (1)
  • adenylylcyclas (1)
  • adrenerg (1)
  • alpha (1)
  • amphetamin (1)
  • area (1)
  • biomedicin (1)
  • brain (1)
  • catecholamin (1)
  • cellular (1)
  • cellularloc (1)
  • cocain (1)
  • cocaineseek (1)
  • cortex (1)
  • cyclas (1)
  • d (1)
  • damphetamin (1)
  • dopamin (1)
  • dopaminereceptor (1)
  • life (1)
  • local (1)
  • microscopi (1)
  • neurolog (1)
  • neuron (1)
  • neurosci (1)
  • nucleus (1)
  • nucleusaccumben (1)
  • prefront (1)
  • primat (1)
  • receptor (1)
  • scienc (1)
  • seek (1)
  • subcellular (1)
  • technolog (1)
  • tegment (1)
  • ventral (1)

Author department

  • Neurology: Movement Disor (1)

Search Results for all work with filters:

  • Neuroscience
  • subcellularloc
  • electron
  • Hum Gen: Admin

Work 1 of 1

Sorted by relevance

Article

D1-DOPAMINE AND alpha 1-ADRENERGIC RECEPTORS CO-LOCALIZE IN DENDRITES OF THE RAT PREFRONTAL CORTEX

by Darlene A. Mitrano; Jean-Francois Pare; Yoland Smith; David Weinshenker

2014

Subjects
  • Biology, Neuroscience
  • Biology, Genetics
  • File Download
  • View Abstract

Abstract:Close

Functional interactions between dopaminergic and noradrenergic systems occur in many brain areas, including the prefrontal cortex (PFC). Biochemical, electrophysiological and behavioral data indicate crosstalk between D1 dopamine receptor (D1R) and α1-adrenergic receptor (α1AR) signaling in the PFC. However, it is unknown whether these interactions occur within the same neurons, or between neurons expressing either receptor. In this study, we used electron microscopy immunocytochemistry to demonstrate that D1Rs and α1ARs co-localize in rat PFC neuronal elements, most prominently in dendrites (60-70%), but also significantly in axon terminals, unmyelinated axons and spines (~20-30%). Our data also showed that the ratio of plasma membrane-bound to intracellular α1ARs is significantly reduced in D1R-expressing dendrites. Similar results were obtained using either a pan-α1AR or a selective α1bAR antibody to label noradrenergic receptors. Thus, these results demonstrate that D1Rs and α1ARs co-localize in PFC dendrites, thereby suggesting that the catecholaminergic effects on PFC function may be driven, at least in part, by cell-autonomous D1R-α1AR interactions.
Site Statistics
  • 16,810
  • Total Works
  • 3,628,459
  • Downloads
  • 1,104,370
  • Downloads This Year
  • 6,807
  • Faculty Profiles

Copyright © 2016 Emory University - All Rights Reserved
540 Asbury Circle, Atlanta, GA 30322-2870
(404) 727-6861
Privacy Policy | Terms & Conditions

v2.2.8-dev

Contact Us Recent and Popular Items
Download now