John C Wallingford

Dr. John C Wallingford


Research Focus & Metrics

Academic Career Length

15Years (2012-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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15 March 2017 in Nature Reviews Molecular Cell Biology
Verified
Journal Article
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MBMitchell T. Butler
Mitchell T. Butler
JWJohn C Wallingford
John C Wallingford

1 March 2013 in Science
Verified
Journal Article
Closed access
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JWJohn C Wallingford
John C Wallingford
LNLee A. Niswander
Lee A. Niswander
GSGary M. Shaw
Gary M. Shaw
RFRichard H. Finnell
Richard H. Finnell
Prevention or Repair: Neural tube defects, such as spina bifida, remain remarkably common, despite widespread efforts to prevent them through supplementing maternal diets with folic acid. Surgery early in development has seen some success, but problems often remain. Wallingford et al. ( 10.1126/science.1222002 ) review normal and abnormal neural tube development and suggest that discovering the genetic risk factors for these serious birth defects could provide ways to prevent and treat neural tube defects.

1 October 2014 in Current Biology
Verified
Journal Article
Closed access
EBEric R. Brooks
Eric R. Brooks
JWJohn C Wallingford
John C Wallingford

7 February 2014 in Science
Verified
Journal Article
Closed access
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ASAsako Shindo
Asako Shindo
JWJohn C Wallingford
John C Wallingford
Sculpting Actomyosin: The sculpting of embryos during development involves coordinated movement of cells in large groups. How actomyosin is controlled during such collective cell movement remains poorly understood. Working with developing Xenopus mesoderm, Shindo and Wallingford (p. 649 ) found that planar cell polarity proteins and septins interface with the actomyosin machinery to control collective cell movement.

14 December 2012 in BMC Biology
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Journal Article
Open access
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WMWallace F Marshall
Wallace F Marshall
KYKevin D Young
Kevin D Young
MSMatthew Swaffer
Matthew Swaffer
EWElizabeth Wood
Elizabeth Wood
PNPaul Nurse
Paul Nurse
ARAdrienne Hk Roeder
Adrienne Hk Roeder

9 May 2016 in Nature Genetics
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Journal Article
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UGUniversity of Washington Center for Mendelian Genomics
University of Washington Center for Mendelian Genomics
MTMichinori Toriyama
Michinori Toriyama
CLChanjae Lee
Chanjae Lee
STS Paige Taylor
S Paige Taylor
IDIvan Duran
Ivan Duran
JWJohn C Wallingford
John C Wallingford
John Wallingford and colleagues combine proteomics, in vivo imaging and genetic analyses to identify a new ciliopathy-associated protein module, which they call CPLANE. They show that CPLANE proteins, which include Fuzzy, Inturned and Wdpcp, interact with Jbts17 at basal bodies, where they act to recruit a specific subset of intraflagellar transport proteins. Cilia use microtubule-based intraflagellar transport (IFT) to organize intercellular signaling. Ciliopathies are a spectrum of human diseases resulting from defects in cilia structure or function. The mechanisms regulating the assembly of ciliary multiprotein complexes and the transport of these complexes to the base of cilia remain largely unknown. Combining proteomics, in vivo imaging and genetic analysis of proteins linked to planar cell polarity (Inturned, Fuzzy and Wdpcp), we identified and characterized a new genetic module, which we term CPLANE (ciliogenesis and planar polarity effector), and an extensive associated protein network. CPLANE proteins physically and functionally interact with the poorly understood ciliopathy-associated protein Jbts17 at basal bodies, where they act to recruit a specific subset of IFT-A proteins. In the absence of CPLANE, defective IFT-A particles enter the axoneme and IFT-B trafficking is severely perturbed. Accordingly, mutation of CPLANE genes elicits specific ciliopathy phenotypes in mouse models and is associated with ciliopathies in human patients.