Papers associated with whole organism (and atp1a1)

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	Maturation of the catalytic alpha-subunit of Na,K-ATPase during intracellular transport., Geering K., J Cell Biol. December 1, 1987; 105 (6 Pt 1): 2613-9.
	Role of the transmembrane and extracytoplasmic domain of beta subunits in subunit assembly, intracellular transport, and functional expression of Na,K-pumps., Jaunin P., J Cell Biol. December 1, 1993; 123 (6 Pt 2): 1751-9.
	Primary sequence and functional expression of a novel beta subunit of the P-ATPase gene family., Jaisser F., Pflugers Arch. December 1, 1993; 425 (5-6): 446-52.
	Primary sequence and developmental expression pattern of mRNAs and protein for an alpha1 subunit of the sodium pump cloned from the neural plate of Xenopus laevis., Davies CS., Dev Biol. March 15, 1996; 174 (2): 431-47.
	Expression of a Na,K-ATPase beta 3 subunit during development of the zebrafish central nervous system., Appel C., J Neurosci Res. December 1, 1996; 46 (5): 551-64.
	Unusual degradation of alpha-beta complexes in Xenopus oocytes by beta-subunits of Xenopus gastric H-K-ATPase., Chen PX., Am J Physiol. July 1, 1998; 275 (1): C139-45.
	Acute regulation by corticosteroids of channel-inducing factor gene messenger ribonucleic acid in the distal colon., Brennan FE., Endocrinology. March 1, 1999; 140 (3): 1213-8.
	Residues of the fourth transmembrane segments of the Na,K-ATPase and the gastric H,K-ATPase contribute to cation selectivity., Mense M., J Biol Chem. January 21, 2000; 275 (3): 1749-56.
	Expression of functional Na,K-ATPase isozymes in normal human cardiac biopsies., Lelievr LG., Cell Mol Biol (Noisy-le-grand). March 1, 2001; 47 (2): 265-71.
	CHIF, a member of the FXYD protein family, is a regulator of Na,K-ATPase distinct from the gamma-subunit., Béguin P., EMBO J. August 1, 2001; 20 (15): 3993-4002.
	Xenopus Na,K-ATPase: primary sequence of the beta2 subunit and in situ localization of alpha1, beta1, and gamma expression during pronephric kidney development., Eid SR., Differentiation. September 1, 2001; 68 (2-3): 115-25.
	FXYD7 is a brain-specific regulator of Na,K-ATPase alpha 1-beta isozymes., Béguin P., EMBO J. July 1, 2002; 21 (13): 3264-73.
	Phospholemman (FXYD1) associates with Na,K-ATPase and regulates its transport properties., Crambert G., Proc Natl Acad Sci U S A. August 20, 2002; 99 (17): 11476-81.
	Early embryonic expression of ion channels and pumps in chick and Xenopus development., Rutenberg J., Dev Dyn. December 1, 2002; 225 (4): 469-84.
	Nongastric H,K-ATPase: structure and functional properties., Modyanov N., Ann N Y Acad Sci. April 1, 2003; 986 183-7.
	[Functional interaction between nicotinic cholinergic receptors and Na, K-ATPase in the skeletal muscles]., Krivoĭ II., Ross Fiziol Zh Im I M Sechenova. January 1, 2004; 90 (1): 59-72.
	New molecular determinants controlling the accessibility of ouabain to its binding site in human Na,K-ATPase alpha isoforms., Crambert G., Mol Pharmacol. February 1, 2004; 65 (2): 335-41.
	The fourth transmembrane segment of the Na,K-ATPase alpha subunit: a systematic mutagenesis study., Horisberger JD., J Biol Chem. July 9, 2004; 279 (28): 29542-50.
	Proximo-distal specialization of epithelial transport processes within the Xenopus pronephric kidney tubules., Zhou X, Zhou X., Dev Biol. July 15, 2004; 271 (2): 322-38.
	Structural and functional interaction sites between Na,K-ATPase and FXYD proteins., Li C., J Biol Chem. September 10, 2004; 279 (37): 38895-902.
	Microarray-based identification of VegT targets in Xenopus., Taverner NV., Mech Dev. March 1, 2005; 122 (3): 333-54.
	Interaction with the Na,K-ATPase and tissue distribution of FXYD5 (related to ion channel)., Lubarski I., J Biol Chem. November 11, 2005; 280 (45): 37717-24.
	Role of the transmembrane domain of FXYD7 in structural and functional interactions with Na,K-ATPase., Li C., J Biol Chem. December 30, 2005; 280 (52): 42738-43.
	The third sodium binding site of Na,K-ATPase is functionally linked to acidic pH-activated inward current., Li C., J Membr Biol. January 1, 2006; 213 (1): 1-9.
	Structural and functional properties of two human FXYD3 (Mat-8) isoforms., Bibert S., J Biol Chem. December 22, 2006; 281 (51): 39142-51.
	FXYD6 is a novel regulator of Na,K-ATPase expressed in the inner ear., Delprat B., J Biol Chem. March 9, 2007; 282 (10): 7450-6.
	Structure of the Na,K-ATPase regulatory protein FXYD1 in micelles., Teriete P., Biochemistry. June 12, 2007; 46 (23): 6774-83.
	Evolution of Na,K-ATPase beta m-subunit into a coregulator of transcription in placental mammals., Pestov NB., Proc Natl Acad Sci U S A. July 3, 2007; 104 (27): 11215-20.
	H,K-ATPase protein localization and Kir4.1 function reveal concordance of three axes during early determination of left-right asymmetry., Aw S., Mech Dev. January 1, 2008; 125 (3-4): 353-72.
	Phosphorylation of phospholemman (FXYD1) by protein kinases A and C modulates distinct Na,K-ATPase isozymes., Bibert S., J Biol Chem. January 4, 2008; 283 (1): 476-486.
	Collectrin/tmem27 is expressed at high levels in all segments of the developing Xenopus pronephric nephron and in the Wolffian duct., McCoy KE., Gene Expr Patterns. April 1, 2008; 8 (4): 271-4.
	Requirement of Wnt/beta-catenin signaling in pronephric kidney development., Lyons JP., Mech Dev. January 1, 2009; 126 (3-4): 142-59.
	Ankyrin-B is required for coordinated expression of beta-2-spectrin, the Na/K-ATPase and the Na/Ca exchanger in the inner segment of rod photoreceptors., Kizhatil K., Exp Eye Res. January 1, 2009; 88 (1): 57-64.
	Progesterone-induced changes in the phosphoryl potential during the meiotic divisions in amphibian oocytes: role of Na/K-ATPase., Morrill GA., BMC Dev Biol. January 26, 2011; 11 67.
	Multiple roles for the Na,K-ATPase subunits, Atp1a1 and Fxyd1, during brain ventricle development., Chang JT., Dev Biol. August 15, 2012; 368 (2): 312-22.
	Plasma membrane events associated with the meiotic divisions in the amphibian oocyte: insights into the evolution of insulin transduction systems and cell signaling., Morrill GA., BMC Dev Biol. January 23, 2013; 13 3.
	Regeneration of functional pronephric proximal tubules after partial nephrectomy in Xenopus laevis., Caine ST., Dev Dyn. March 1, 2013; 242 (3): 219-29.
	Urotensin II receptor (UTR) exists in hyaline chondrocytes: a study of peripheral distribution of UTR in the African clawed frog, Xenopus laevis., Konno N., Gen Comp Endocrinol. May 1, 2013; 185 44-56.
	ANKS6 is a central component of a nephronophthisis module linking NEK8 to INVS and NPHP3., Hoff S., Nat Genet. August 1, 2013; 45 (8): 951-6.
	Signals governing the trafficking and mistrafficking of a ciliary GPCR, rhodopsin., Lodowski KH., J Neurosci. August 21, 2013; 33 (34): 13621-38.
	The alternative splicing regulator Tra2b is required for somitogenesis and regulates splicing of an inhibitory Wnt11b isoform., Dichmann DS., Cell Rep. February 3, 2015; 10 (4): 527-36.
	Direct reprogramming of fibroblasts into renal tubular epithelial cells by defined transcription factors., Kaminski MM., Nat Cell Biol. December 1, 2016; 18 (12): 1269-1280.
	Tissue-Specific Gene Inactivation in Xenopus laevis: Knockout of lhx1 in the Kidney with CRISPR/Cas9., DeLay BD., Genetics. February 1, 2018; 208 (2): 673-686.
	Asymmetric distribution of biomolecules of maternal origin in the Xenopus laevis egg and their impact on the developmental plan., Sindelka R., Sci Rep. May 29, 2018; 8 (1): 8315.
	Nucleoporin NUP205 plays a critical role in cilia and congenital disease., Marquez J., Dev Biol. January 1, 2021; 469 46-53.
	Deep learning is widely applicable to phenotyping embryonic development and disease., Naert T., Development. November 1, 2021; 148 (21):
	Cilia-localized GID/CTLH ubiquitin ligase complex regulates protein homeostasis of sonic hedgehog signaling components., Hantel F., J Cell Sci. May 1, 2022; 135 (9):
	Normal Table of Xenopus development: a new graphical resource., Zahn N., Development. July 15, 2022; 149 (14):
	Phenotype-genotype relationships in Xenopus sox9 crispants provide insights into campomelic dysplasia and vertebrate jaw evolution., Hossain N., Dev Growth Differ. October 1, 2023; 65 (8): 481-497.
	Developmental regulation of cellular metabolism is required for intestinal elongation and rotation., Grzymkowski JK., Development. February 15, 2024; 151 (4):

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