Literature DB >> 29439167

Combinatorial Effects of Alpha- and Gamma-Protocadherins on Neuronal Survival and Dendritic Self-Avoidance.

Samantha Ing-Esteves1, Dimitar Kostadinov2, Julie Marocha1, Anson D Sing1, Kezia S Joseph1, Mallory A Laboulaye2, Joshua R Sanes2, Julie L Lefebvre3,2.   

Abstract

The clustered protocadherins (Pcdhs) comprise 58 cadherin-related proteins encoded by three tandemly arrayed gene clusters, Pcdh-α, Pcdh-β, and Pcdh-γ (Pcdha, Pcdhb, and Pcdhg, respectively). Pcdh isoforms from different clusters are combinatorially expressed in neurons. They form multimers that interact homophilically and mediate a variety of developmental processes, including neuronal survival, synaptic maintenance, axonal tiling, and dendritic self-avoidance. Most studies have analyzed clusters individually. Here, we assessed functional interactions between Pcdha and Pcdhg clusters. To circumvent neonatal lethality associated with deletion of Pcdhgs, we used Crispr-Cas9 genome editing in mice to combine a constitutive Pcdha mutant allele with a conditional Pcdhg allele. We analyzed roles of Pcdhas and Pcdhgs in the retina and cerebellum from mice (both sexes) lacking one or both clusters. In retina, Pcdhgs are essential for survival of inner retinal neurons and dendritic self-avoidance of starburst amacrine cells, whereas Pcdhas are dispensable for both processes. Deletion of both Pcdha and Pcdhg clusters led to far more dramatic defects in survival and self-avoidance than Pcdhg deletion alone. Comparisons of an allelic series of mutants support the conclusion that Pcdhas and Pcdhgs function together in a dose-dependent and cell-type-specific manner to provide a critical threshold of Pcdh activity. In the cerebellum, Pcdhas and Pcdhgs also cooperate to mediate self-avoidance of Purkinje cell dendrites, with modest but significant defects in either single mutant and dramatic defects in the double mutant. Together, our results demonstrate complex patterns of redundancy between Pcdh clusters and the importance of Pcdh cluster diversity in postnatal CNS development.SIGNIFICANCE STATEMENT The formation of neural circuits requires diversification and combinatorial actions of cell surface proteins. Prominent among them are the clustered protocadherins (Pcdhs), a family of ∼60 neuronal recognition molecules. Pcdhs are encoded by three closely linked gene clusters called Pcdh-α, Pcdh-β, and Pcdh-γ. The Pcdhs mediate a variety of developmental processes, including neuronal survival, synaptic maintenance, and spatial patterning of axons and dendrites. Most studies to date have been limited to single clusters. Here, we used genome editing to assess interactions between Pcdh-α and Pcdh-γ gene clusters. We examined two regions of the CNS, the retina and cerebellum and show that the 14 α-Pcdhs and 22 γ-Pcdhs act synergistically to mediate neuronal survival and dendrite patterning.
Copyright © 2018 the authors 0270-6474/18/382713-17$15.00/0.

Entities:  

Keywords:  apoptosis; dendrite; neurite development; protocadherin; retina; self-avoidance

Mesh:

Substances:

Year:  2018        PMID: 29439167      PMCID: PMC5852656          DOI: 10.1523/JNEUROSCI.3035-17.2018

Source DB:  PubMed          Journal:  J Neurosci        ISSN: 0270-6474            Impact factor:   6.167


  55 in total

1.  Monoallelic yet combinatorial expression of variable exons of the protocadherin-alpha gene cluster in single neurons.

Authors:  Shigeyuki Esumi; Naoki Kakazu; Yusuke Taguchi; Teruyoshi Hirayama; Ayako Sasaki; Takahiro Hirabayashi; Tsuyoshi Koide; Takashi Kitsukawa; Shun Hamada; Takeshi Yagi
Journal:  Nat Genet       Date:  2005-01-09       Impact factor: 38.330

2.  Functional significance of isoform diversification in the protocadherin gamma gene cluster.

Authors:  Weisheng V Chen; Francisco J Alvarez; Julie L Lefebvre; Brad Friedman; Chiamaka Nwakeze; Eric Geiman; Courtney Smith; Chan Aye Thu; Juan Carlos Tapia; Bosiljka Tasic; Joshua R Sanes; Tom Maniatis
Journal:  Neuron       Date:  2012-08-09       Impact factor: 17.173

3.  Identification of long-range regulatory elements in the protocadherin-alpha gene cluster.

Authors:  Scott Ribich; Bosiljka Tasic; Tom Maniatis
Journal:  Proc Natl Acad Sci U S A       Date:  2006-12-15       Impact factor: 11.205

Review 4.  Structural origins of clustered protocadherin-mediated neuronal barcoding.

Authors:  Rotem Rubinstein; Kerry Marie Goodman; Tom Maniatis; Lawrence Shapiro; Barry Honig
Journal:  Semin Cell Dev Biol       Date:  2017-07-22       Impact factor: 7.727

5.  Single-cell identity generated by combinatorial homophilic interactions between α, β, and γ protocadherins.

Authors:  Chan Aye Thu; Weisheng V Chen; Rotem Rubinstein; Maxime Chevee; Holly N Wolcott; Klara O Felsovalyi; Juan Carlos Tapia; Lawrence Shapiro; Barry Honig; Tom Maniatis
Journal:  Cell       Date:  2014-08-28       Impact factor: 41.582

6.  Cell death during differentiation of the retina in the mouse.

Authors:  R W Young
Journal:  J Comp Neurol       Date:  1984-11-01       Impact factor: 3.215

Review 7.  Appearances can be deceiving: phenotypes of knockout mice.

Authors:  Ivana Barbaric; Gaynor Miller; T Neil Dear
Journal:  Brief Funct Genomic Proteomic       Date:  2007-06-20

8.  Direct and Indirect Regulation of Spinal Cord Ia Afferent Terminal Formation by the γ-Protocadherins.

Authors:  Tuhina Prasad; Joshua A Weiner
Journal:  Front Mol Neurosci       Date:  2011-12-23       Impact factor: 5.639

9.  Clustered Protocadherins Are Required for Building Functional Neural Circuits.

Authors:  Sonoko Hasegawa; Hiroaki Kobayashi; Makiko Kumagai; Hiroshi Nishimaru; Etsuko Tarusawa; Hiro Kanda; Makoto Sanbo; Yumiko Yoshimura; Masumi Hirabayashi; Takahiro Hirabayashi; Takeshi Yagi
Journal:  Front Mol Neurosci       Date:  2017-04-24       Impact factor: 5.639

10.  Protocadherins mediate dendritic self-avoidance in the mammalian nervous system.

Authors:  Julie L Lefebvre; Dimitar Kostadinov; Weisheng V Chen; Tom Maniatis; Joshua R Sanes
Journal:  Nature       Date:  2012-08-23       Impact factor: 49.962

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  28 in total

Review 1.  Dendritic Self-Avoidance and Morphological Development of Cerebellar Purkinje Cells.

Authors:  Kazuto Fujishima; Kelly Kawabata Galbraith; Mineko Kengaku
Journal:  Cerebellum       Date:  2018-12       Impact factor: 3.847

2.  Clustered gamma-protocadherins regulate cortical interneuron programmed cell death.

Authors:  Walter R Mancia Leon; Julien Spatazza; Benjamin Rakela; Ankita Chatterjee; Viraj Pande; Tom Maniatis; Andrea R Hasenstaub; Michael P Stryker; Arturo Alvarez-Buylla
Journal:  Elife       Date:  2020-07-07       Impact factor: 8.140

3.  The γ-Protocadherins Regulate the Survival of GABAergic Interneurons during Developmental Cell Death.

Authors:  Candace H Carriere; Wendy Xueyi Wang; Anson D Sing; Adam Fekete; Brian E Jones; Yohan Yee; Jacob Ellegood; Harinad Maganti; Lola Awofala; Julie Marocha; Amar Aziz; Lu-Yang Wang; Jason P Lerch; Julie L Lefebvre
Journal:  J Neurosci       Date:  2020-10-15       Impact factor: 6.167

4.  Visualization of clustered protocadherin neuronal self-recognition complexes.

Authors:  Julia Brasch; Kerry M Goodman; Alex J Noble; Micah Rapp; Seetha Mannepalli; Fabiana Bahna; Venkata P Dandey; Tristan Bepler; Bonnie Berger; Tom Maniatis; Clinton S Potter; Bridget Carragher; Barry Honig; Lawrence Shapiro
Journal:  Nature       Date:  2019-04-10       Impact factor: 49.962

Review 5.  Dendrite morphogenesis from birth to adulthood.

Authors:  Cameron L Prigge; Jeremy N Kay
Journal:  Curr Opin Neurobiol       Date:  2018-08-06       Impact factor: 6.627

6.  A Dense Starburst Plexus Is Critical for Generating Direction Selectivity.

Authors:  Ryan D Morrie; Marla B Feller
Journal:  Curr Biol       Date:  2018-03-29       Impact factor: 10.834

7.  DSCAM promotes self-avoidance in the developing mouse retina by masking the functions of cadherin superfamily members.

Authors:  Andrew M Garrett; Andre Khalil; David O Walton; Robert W Burgess
Journal:  Proc Natl Acad Sci U S A       Date:  2018-10-08       Impact factor: 11.205

8.  Optimizing Nervous System-Specific Gene Targeting with Cre Driver Lines: Prevalence of Germline Recombination and Influencing Factors.

Authors:  Lin Luo; Mateusz C Ambrozkiewicz; Fritz Benseler; Cui Chen; Emilie Dumontier; Susanne Falkner; Elisabetta Furlanis; Andrea M Gomez; Naosuke Hoshina; Wei-Hsiang Huang; Mary Anne Hutchison; Yu Itoh-Maruoka; Laura A Lavery; Wei Li; Tomohiko Maruo; Junko Motohashi; Emily Ling-Lin Pai; Kenneth A Pelkey; Ariane Pereira; Thomas Philips; Jennifer L Sinclair; Jeff A Stogsdill; Lisa Traunmüller; Jiexin Wang; Joke Wortel; Wenjia You; Nashat Abumaria; Kevin T Beier; Nils Brose; Harold A Burgess; Constance L Cepko; Jean-François Cloutier; Cagla Eroglu; Sandra Goebbels; Pascal S Kaeser; Jeremy N Kay; Wei Lu; Liqun Luo; Kenji Mandai; Chris J McBain; Klaus-Armin Nave; Marco A M Prado; Vania F Prado; Jeffrey Rothstein; John L R Rubenstein; Gesine Saher; Kenji Sakimura; Joshua R Sanes; Peter Scheiffele; Yoshimi Takai; Hisashi Umemori; Matthijs Verhage; Michisuke Yuzaki; Huda Yahya Zoghbi; Hiroshi Kawabe; Ann Marie Craig
Journal:  Neuron       Date:  2020-02-05       Impact factor: 17.173

9.  Interactions between the Ig-Superfamily Proteins DIP-α and Dpr6/10 Regulate Assembly of Neural Circuits.

Authors:  Shuwa Xu; Qi Xiao; Filip Cosmanescu; Alina P Sergeeva; Juyoun Yoo; Ying Lin; Phinikoula S Katsamba; Goran Ahlsen; Jonathan Kaufman; Nikhil T Linaval; Pei-Tseng Lee; Hugo J Bellen; Lawrence Shapiro; Barry Honig; Liming Tan; S Lawrence Zipursky
Journal:  Neuron       Date:  2018-11-19       Impact factor: 17.173

Review 10.  Molecular mechanisms regulating synaptic specificity and retinal circuit formation.

Authors:  Hannah K Graham; Xin Duan
Journal:  Wiley Interdiscip Rev Dev Biol       Date:  2020-04-08       Impact factor: 5.814

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