Literature DB >> 31079844

Laura E Schroeder1, Ryan Furdock1, Cristina Rivera Quiles1, Gizem Kurt1, Patricia Perez-Bonilla1, Angela Garcia1, Crystal Colon-Ortiz1, Juliette Brown1, Raluca Bugescu1, Gina M Leinninger2.   

Abstract

Neurotensin (Nts) is a neuropeptide implicated in the regulation of many facets of physiology, including cardiovascular tone, pain processing, ingestive behaviors, locomotor drive, sleep, addiction and social behaviors. Yet, there is incomplete understanding about how the various populations of Nts neurons distributed throughout the brain mediate such physiology. This knowledge gap largely stemmed from the inability to simultaneously identify Nts cell bodies and manipulate them in vivo. One means of overcoming this obstacle is to study NtsCre mice crossed onto a Cre-inducible green fluorescent reporter line (NtsCre;GFP mice), as these mice permit both visualization and in vivo modulation of specific populations of Nts neurons (using Cre-inducible viral and genetic tools) to reveal their function. Here we provide a comprehensive characterization of the distribution and relative densities of the Nts-GFP populations observed throughout the male NtsCre;GFP mouse brain, which will pave the way for future work to define their physiologic roles. We also compared the distribution of Nts-GFP neurons with Nts-In situ Hybridization (Nts-ISH) data from the adult mouse brain. By comparing these data sets we can distinguish Nts-GFP populations that may only transiently express Nts during development but not in the mature brain, and hence which populations may not be amenable to Cre-mediated manipulation in adult NtsCre;GFP mice. This atlas of Nts-GFP neurons will facilitate future studies using the NtsCre;GFP line to describe the physiological functions of individual Nts populations and how modulating them may be useful to treat disease.
Copyright © 2019 Elsevier Ltd. All rights reserved.

Entities:  

Keywords:  Central amygdala; Galanin; Lateral hypothalamus; Nucleus accumbens; Olfactory tubercle; Parabrachial nucleus; Periaqueductal gray; Preoptic area; Thalamus

Mesh:

Substances:

Year:  2019        PMID: 31079844      PMCID: PMC7721284          DOI: 10.1016/j.npep.2019.05.001

Source DB:  PubMed          Journal:  Neuropeptides        ISSN: 0143-4179            Impact factor:   3.286


  69 in total

1.  Neurotensin-induced bursting of cholinergic basal forebrain neurons promotes gamma and theta cortical activity together with waking and paradoxical sleep.

Authors:  E G Cape; I D Manns; A Alonso; A Beaudet; B E Jones
Journal:  J Neurosci       Date:  2000-11-15       Impact factor: 6.167

2.  Ventral tegmental area infusion of substance P, neurotensin and enkephalin: differential effects on feeding behavior.

Authors:  M Cador; A E Kelley; M Le Moal; L Stinus
Journal:  Neuroscience       Date:  1986-07       Impact factor: 3.590

3.  Effects of Peripheral Neurotensin on Appetite Regulation and Its Role in Gastric Bypass Surgery.

Authors:  Cecilia Ratner; Louise J Skov; Zindy Raida; Thomas Bächler; Kathrin Bellmann-Sickert; Christelle Le Foll; Bjørn Sivertsen; Louise S Dalbøge; Bolette Hartmann; Annette G Beck-Sickinger; Andreas N Madsen; Jacob Jelsing; Jens J Holst; Thomas A Lutz; Zane B Andrews; Birgitte Holst
Journal:  Endocrinology       Date:  2016-07-20       Impact factor: 4.736

4.  Neurotensin neural mRNA expression correlates with vocal communication and other highly-motivated social behaviors in male European starlings.

Authors:  Devin P Merullo; Melissa A Cordes; M Susan DeVries; Sharon A Stevenson; Lauren V Riters
Journal:  Physiol Behav       Date:  2015-07-17

5.  Altered sleep and affect in the neurotensin receptor 1 knockout mouse.

Authors:  Karrie Fitzpatrick; Christopher J Winrow; Anthony L Gotter; Joshua Millstein; Janna Arbuzova; Joseph Brunner; Andrew Kasarskis; Martha H Vitaterna; John J Renger; Fred W Turek
Journal:  Sleep       Date:  2012-07-01       Impact factor: 5.849

6.  Species differences in brain pre-pro-neurotensin/neuromedin N mRNA distribution: the expression pattern in mice resembles more closely that of primates than rats.

Authors:  Simone M Smits; Afke F Terwisscha van Scheltinga; Annemarie J A van der Linden; J Peter H Burbach; Marten P Smidt
Journal:  Brain Res Mol Brain Res       Date:  2004-06-18

7.  Repeated neurotensin administration in the ventral tegmental area: effects on baseline and D-amphetamine-induced locomotor activity.

Authors:  P J Elliott; C B Nemeroff
Journal:  Neurosci Lett       Date:  1986-07-24       Impact factor: 3.046

8.  Neurotensin neurons in the rat hypothalamus: an immunocytochemical study.

Authors:  D Kahn; G M Abrams; E A Zimmerman; R Carraway; S E Leeman
Journal:  Endocrinology       Date:  1980-07       Impact factor: 4.736

9.  Novel and ultra-rare damaging variants in neuropeptide signaling are associated with disordered eating behaviors.

Authors:  Michael Lutter; Ethan Bahl; Claire Hannah; Dabney Hofammann; Summer Acevedo; Huxing Cui; Carrie J McAdams; Jacob J Michaelson
Journal:  PLoS One       Date:  2017-08-28       Impact factor: 3.240

10.  An obligatory role for neurotensin in high-fat-diet-induced obesity.

Authors:  Jing Li; Jun Song; Yekaterina Y Zaytseva; Yajuan Liu; Piotr Rychahou; Kai Jiang; Marlene E Starr; Ji Tae Kim; Jennifer W Harris; Frederique B Yiannikouris; Wendy S Katz; Peter M Nilsson; Marju Orho-Melander; Jing Chen; Haining Zhu; Timothy Fahrenholz; Richard M Higashi; Tianyan Gao; Andrew J Morris; Lisa A Cassis; Teresa W-M Fan; Heidi L Weiss; Paul R Dobner; Olle Melander; Jianhang Jia; B Mark Evers
Journal:  Nature       Date:  2016-05-11       Impact factor: 49.962

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  10 in total

Review 1.  Neurotensin in reward processes.

Authors:  María Luisa Torruella-Suárez; Zoe A McElligott
Journal:  Neuropharmacology       Date:  2020-02-11       Impact factor: 5.250

2.  The physiological control of eating: signals, neurons, and networks.

Authors:  Alan G Watts; Scott E Kanoski; Graciela Sanchez-Watts; Wolfgang Langhans
Journal:  Physiol Rev       Date:  2021-09-06       Impact factor: 37.312

3.  Manipulations of Central Amygdala Neurotensin Neurons Alter the Consumption of Ethanol and Sweet Fluids in Mice.

Authors:  María Luisa Torruella-Suárez; Jessica R Vandenberg; Elizabeth S Cogan; Gregory J Tipton; Adonay Teklezghi; Kedar Dange; Gunjan K Patel; Jenna A McHenry; J Andrew Hardaway; Pranish A Kantak; Nicole A Crowley; Jeffrey F DiBerto; Sara P Faccidomo; Clyde W Hodge; Garret D Stuber; Zoé A McElligott
Journal:  J Neurosci       Date:  2019-11-19       Impact factor: 6.167

4.  Immunolabeling Provides Evidence for Subregions in the Songbird Nucleus Accumbens and Suggests a Context-Dependent Role in Song in Male European Starlings (Sturnus vulgaris).

Authors:  Brandon J Polzin; Sarah A Heimovics; Lauren V Riters
Journal:  Brain Behav Evol       Date:  2021-12-08       Impact factor: 1.808

Review 5.  The ins and outs of the caudal nucleus of the solitary tract: An overview of cellular populations and anatomical connections.

Authors:  Marie K Holt
Journal:  J Neuroendocrinol       Date:  2022-05-04       Impact factor: 3.870

Review 6.  The Role of Central Neurotensin in Regulating Feeding and Body Weight.

Authors:  Jariel Ramirez-Virella; Gina M Leinninger
Journal:  Endocrinology       Date:  2021-05-01       Impact factor: 4.736

7.  Activation of ventral tegmental area neurotensin Receptor-1 neurons promotes weight loss.

Authors:  Patricia Perez-Bonilla; Krystal Santiago-Colon; Jillian Matasovsky; Jariel Ramirez-Virella; Rabail Khan; Hannah Garver; Gregory Fink; Anne M Dorrance; Gina M Leinninger
Journal:  Neuropharmacology       Date:  2021-06-09       Impact factor: 5.273

Review 8.  Neurochemical organization of the ventral striatum's olfactory tubercle.

Authors:  Hillary L Cansler; Katherine N Wright; Lucas A Stetzik; Daniel W Wesson
Journal:  J Neurochem       Date:  2020-01-07       Impact factor: 5.372

9.  Ionic and signaling mechanisms involved in neurotensin-mediated excitation of central amygdala neurons.

Authors:  Saobo Lei; Binqi Hu
Journal:  Neuropharmacology       Date:  2021-07-14       Impact factor: 5.273

10.  A limbic circuit selectively links active escape to food suppression.

Authors:  Estefania P Azevedo; Bowen Tan; Lisa E Pomeranz; Violet Ivan; Robert Fetcho; Marc Schneeberger; Katherine R Doerig; Conor Liston; Jeffrey M Friedman; Sarah A Stern
Journal:  Elife       Date:  2020-09-07       Impact factor: 8.713

  10 in total

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