about
Ammonia transport in the kidney by Rhesus glycoproteins.Molecular mechanisms of renal ammonia transport.Expression of the rhesus glycoproteins, ammonia transporter family members, RHCG and RHBG in male reproductive organs.Effects of chronic lithium administration on renal acid excretion in humans and rats.Effect of hypokalemia on renal expression of the ammonia transporter family members, Rh B Glycoprotein and Rh C Glycoprotein, in the rat kidney.Effect of dietary protein restriction on renal ammonia metabolismUrea and Ammonia Metabolism and the Control of Renal Nitrogen Excretion.NBCe1 expression is required for normal renal ammonia metabolism.Intercalated cell-specific Rh B glycoprotein deletion diminishes renal ammonia excretion response to hypokalemia.Proximal tubule-specific glutamine synthetase deletion alters basal and acidosis-stimulated ammonia metabolism.New insights into the molecular regulation of urine concentration.Expression of glutamine synthetase in the mouse kidney: localization in multiple epithelial cell types and differential regulation by hypokalemia.Effect of collecting duct-specific deletion of both Rh B Glycoprotein (Rhbg) and Rh C Glycoprotein (Rhcg) on renal response to metabolic acidosis.Ammonia Transporters and Their Role in Acid-Base Balance.Proximal tubule glutamine synthetase expression is necessary for the normal response to dietary protein restriction.Expression of sodium-dependent dicarboxylate transporter 1 (NaDC1/SLC13A2) in normal and neoplastic human kidney.Mechanism of Hyperkalemia-Induced Metabolic Acidosis.Renal microperfusion techniquesProposed mechanism in the change of cellular composition in the outer medullary collecting duct during potassium homeostasisNBCe1-A Regulates Proximal Tubule Ammonia Metabolism under Basal Conditions and in Response to Metabolic AcidosisDifferences in renal ammonia metabolism in male and female kidneyExpression of the B splice variant of NBCe1 (SLC4A4) in the mouse kidneyTestosterone modulates renal ammonia metabolismClock gene expression is altered in veterans with sleep apneaNBCe1-A is required for the renal ammonia and K+ response to hypokalemiaDifferences in acidosis-stimulated renal ammonia metabolism in the male and female kidneySecondary capillary leak syndrome related to pemetrexed exposure
P50
Q30578351-9057FEDA-5AFF-439F-99CF-F09EA856E099Q35037045-17C5390A-9EDF-4CAC-B85C-0501F19CED07Q35049220-AB82B7F3-A576-47AC-BE58-DCDC8A5F378CQ35094211-1D1B8BB1-300E-4075-89BC-9FC4DCB8093DQ35325953-27542C22-5210-49C9-9983-53FC845C1077Q35749634-D55C08ED-D63D-4E25-BB1D-63A9F97FBE70Q35922729-835D6742-9AFA-4E85-BBB5-A6C92D8F618FQ36122791-7F547B30-C487-4AAD-A145-EB76C14ED3AFQ36593057-ED7E2B01-F5C3-42ED-A37B-61A52EC09CE6Q37072414-D5C543F9-4D9D-446A-959B-476A80A49532Q37139453-7D4D4AFC-9428-4373-B570-8CAA704F38AFQ37142486-0CAC6248-28B9-49BE-AAF8-B5ECBF947381Q37575483-7A2CA3F3-5550-4FF7-8664-29E9761DE35CQ39115255-2A7353DA-59E4-4156-9155-9FCB223B6768Q47937945-0451C6A6-A011-4487-A04E-D6CC09592836Q48018871-200C9338-DC9C-4398-B70E-9F46AD28BFB4Q54124330-1B89CB07-404E-468F-B16B-E4D64A62DD97Q73722621-7E04FDAC-DD73-4081-A1E6-59FF712D5F45Q87433500-BB4B640E-0CAE-4F24-86AA-28E513A9F19EQ87887559-BB71E490-E67E-4547-A146-C1984AF3489BQ88117745-29FDB80E-A77C-47D9-8A7B-39E67049A538Q88308918-1F228F71-93BE-4630-8E1F-9959034EA526Q89962195-E9F374BE-EEA6-4B82-85F0-EB36A7E4339BQ91110696-D4962A07-AD05-4246-B27D-615CC3A48C35Q92005578-26A6A493-EE22-41EB-A5B8-74E4733149BBQ92475254-E2DC3258-76A6-4639-9678-F8383437B8CFQ95467963-3B352B70-1CA4-4B33-AD92-B32E08418171
P50
description
researcher
@en
wetenschapper
@nl
name
I David Weiner
@en
I David Weiner
@nl
type
label
I David Weiner
@en
I David Weiner
@nl
prefLabel
I David Weiner
@en
I David Weiner
@nl
P106
P31
P496
0000-0002-0046-0600