All Stories

  1. Acidosis attenuates the hypoxic stabilization of HIF-1α by activating lysosomal degradation
  2. Innovating cancer drug discovery with refined phenotypic screens
  3. Lysosomal signalling pathways influence heart rhythm, and regulate atrial function
  4. Lysosomal signalling pathways influence heart rhythm, and regulate atrial function
  5. Protocol for separating cancer cell subpopulations by metabolic activity using flow cytometry
  6. Phenotypic screen of sixty-eight colorectal cancer cell lines identifies CEACAM6 and CEACAM5 as markers of acid resistance
  7. Dynamic IL-6R/STAT3 signaling leads to heterogeneity of metabolic phenotype in pancreatic ductal adenocarcinoma cells
  8. What can we learn about acid-base transporters in cancer from studying somatic mutations in their genes?
  9. How protons pave the way to aggressive cancers
  10. Acid-adapted cancer cells alkalinize their cytoplasm by degrading the acid-loading membrane transporter anion exchanger 2, SLC4A2
  11. Permeability and driving force: why is difficult to control glycolytic flux by blocking lactate transporters?
  12. Metabolic reprogramming under hypoxic storage preserves faster oxygen unloading from stored red blood cells
  13. Solute exchange through gap junctions lessens the adverse effects of inactivating mutations in metabolite-handling genes
  14. Autoregulation of H+/lactate efflux prevents monocarboxylate transport (MCT) inhibitors from reducing glycolytic lactic acid production
  15. Proton export upregulates aerobic glycolysis
  16. Channelling protons out of the heart
  17. Lipogenesis mediated by OGR1 regulates metabolic adaptation to acid stress in cancer cells via autophagy
  18. Alkaline nucleoplasm facilitates contractile gene expression in the mammalian heart
  19. CRISPR-Cas9 screen identifies oxidative phosphorylation as essential for cancer cell survival at low extracellular pH
  20. Acidic environments trigger intracellular H+-sensing FAK proteins to re-balance sarcolemmal acid–base transporters and auto-regulate cardiomyocyte pH
  21. What do cellular responses to acidity tell us about cancer?
  22. Stored blood has compromised oxygen unloading kinetics that can be normalized with rejuvenation and predicted from corpuscular side-scatter
  23. Cost-Effective Real-Time Metabolic Profiling of Cancer Cell Lines for Plate-Based Assays
  24. SGLT2 inhibitors and the cardiac Na+/H+ exchanger-1: the plot thickens
  25. Oxidation of Protein Kinase A Regulatory Subunit PKARIα Protects Against Myocardial Ischemia-Reperfusion Injury by Inhibiting Lysosomal-Triggered Calcium Release
  26. Cardiomyocyte Na+/H+ Exchanger-1 Activity Is Reduced in Hypoxia
  27. Iron-Deficiency Anemia Results in Transcriptional and Metabolic Remodeling in the Heart Toward a Glycolytic Phenotype
  28. Targeting of Evolutionarily Acquired Cancer Cell Phenotype by Exploiting pHi-Metabolic Vulnerabilities
  29. Cardiac Complications of Propionic and Other Inherited Organic Acidemias
  30. Off-target effects of sodium-glucose co-transporter 2 blockers: empagliflozin does not inhibit Na+/H+ exchanger-1 or lower [Na+]i in the heart
  31. T-cells produce acidic niches in lymph nodes to suppress their own effector functions
  32. Single‐cell oxygen saturation imaging shows that gas exchange by red blood cells is not impaired in COVID‐19 patients
  33. Detection of Intravascular Hemolysis in Newborn Infants Using Urinary Carbonic Anhydrase I Immunoreactivity
  34. Single-cell O 2 exchange imaging shows that cytoplasmic diffusion is a dominant barrier to efficient gas transport in red blood cells
  35. Causes and Consequences of Variable Tumor Cell Metabolism on Heritable Modifications and Tumor Evolution
  36. Nitric oxide modulates cardiomyocyte pH control through a biphasic effect on sodium/hydrogen exchanger-1
  37. A high-throughput ratiometric method for imaging hypertrophic growth in cultured primary cardiac myocytes
  38. Evidence-based guidelines for controlling pH in mammalian live-cell culture systems
  39. Iron-deficiency anemia reduces cardiac contraction by downregulating RyR2 channels and suppressing SERCA pump activity
  40. What is pH regulation, and why do cancer cells need it?
  41. A Barter Economy in Tumors: Exchanging Metabolites through Gap Junctions
  42. Recovery from hypoxia-induced internalization of cardiac Na+ /H + exchanger 1 requires an adequate intracellular store of antioxidants
  43. Carbonic anhydrase IX is a pH-stat that sets an acidic tumour extracellular pH in vivo
  44. Phosphatases control PKA-dependent functional microdomains at the outer mitochondrial membrane
  45. Defining the ionic mechanisms of optogenetic control of vascular tone by channelrhodopsin-2
  46. Distinct moieties underlie biphasic H+gating of connexin43 channels, producing a pH optimum for intercellular communication
  47. Normoxic cells remotely regulate the acid-base balance of cells at the hypoxic core of connexin-coupled tumor growths
  48. Connexin-43 channels are a pathway for discharging lactate from glycolytic pancreatic ductal adenocarcinoma cells
  49. Regional acidosis locally inhibits but remotely stimulates Ca2+ waves in ventricular myocytes
  50. Red blood cell thickness is evolutionarily constrained by slow, hemoglobin-restricted diffusion in cytoplasm
  51. Stromal uptake and transmission of acid is a pathway for venting cancer cell-generated acid
  52. Nuclear proton dynamics and interactions with calcium signaling
  53. Disrupting Hypoxia-Induced Bicarbonate Transport Acidifies Tumor Cells and Suppresses Tumor Growth
  54. Intracellular tortuosity underlies slow cAMP diffusion in adult ventricular myocytes
  55. CrossTalk opposing view: Physiological CO2exchange does not normally depend on membrane channels
  56. Rebuttal from Pawel Swietach, Richard D. Vaughan-Jones, Alzbeta Hulikova and Steven A. Niederer
  57. Na+ ions as spatial intracellular messengers for co-ordinating Ca2+ signals during pH heterogeneity in cardiomyocytes
  58. Intracellular Carbonic Anhydrase Activity Sensitizes Cancer Cell pH Signaling to Dynamic Changes in CO 2 Partial Pressure
  59. Rapid CO 2 permeation across biological membranes: implications for CO 2 venting from tissue
  60. Pumping Ca2+ up H+ gradients: a Ca2+–H+ exchanger without a membrane
  61. The chemistry, physiology and pathology of pH in cancer
  62. Facilitation by intracellular carbonic anhydrase of Na+–HCO3− co‐transport but not Na+/H+ exchange activity in the mammalian ventricular myocyte
  63. Antitumor Efficacy of a Monoclonal Antibody That Inhibits the Activity of Cancer-Associated Carbonic Anhydrase XII
  64. H+-activated Na+ influx in the ventricular myocyte couples Ca2+-signalling to intracellular pH
  65. Coupled Ca 2+ /H + transport by cytoplasmic buffers regulates local Ca 2+ and H + ion signaling
  66. Sarcolemmal localisation of Na+/H+exchange and Na+-HCO3−co-transport influences the spatial regulation of intracellular pH in rat ventricular myocytes
  67. Extramitochondrial domain rich in carbonic anhydrase activity improves myocardial energetics
  68. Low and High pH Gating of Connexin43 Channels
  69. Intracellular Na+ Spatially Controls Ca2+ Signaling during Acidosis in the Ventricular Myocyte
  70. An Extra-Mitochondrial Domain Rich in Carbonic Anhydrase Activity Improves Myocardial Energetics
  71. Regulation of intracellular pH in cancer cell lines under normoxia and hypoxia
  72. Importance of Intracellular pH in Determining the Uptake and Efficacy of the Weakly Basic Chemotherapeutic Drug, Doxorubicin
  73. Carbonic Anhydrase IX Promotes Tumor Growth and Necrosis In Vivo and Inhibition Enhances Anti-VEGF Therapy
  74. Acid-extrusion from Tissue: The Interplay Between Membrane Transporters and pH Buffers
  75. Spatial Localisation and Function of pH-Regulatory Transporters in the Rat Ventricular Myocyte
  76. Role of Cytoplasmic Buffers in Spatial H+-Ca2+ Interactions in Ventricular Myocytes
  77. Antibody inhibiting enzymatic activity of tumour-associated carbonic anhydrase isoform IX
  78. Dual Role of CO2/HCOFormula Buffer in the Regulation of Intracellular pH of Three-dimensional Tumor Growths
  79. Hydrogen ion dynamics in human red blood cells
  80. New insights into the physiological role of carbonic anhydrase IX in tumour pH regulation
  81. A mathematical model of the murine ventricular myocyte: a data-driven biophysically based approach applied to mice overexpressing the canine NCX isoform
  82. The importance of carbonic anhydrase II in red blood cells during exposure of chicken embryos to CO2
  83. The Tumor Microenvironment: New Insights into Regulation of Tumor pH by Carbonic Anhydrases
  84. Modeling calcium waves in cardiac myocytes: importance of calcium diffusion
  85. Measuring intracellular pH in the heart using hyperpolarized carbon dioxide and bicarbonate: a 13C and 31P magnetic resonance spectroscopy study
  86. Spatial regulation of intracellular pH in multicellular strands of neonatal rat cardiomyocytes
  87. The Role of Carbonic Anhydrase 9 in Regulating Extracellular and Intracellular pH in Three-dimensional Tumor Cell Growths
  88. Differentiation impairs low pH-induced Ca2+ signaling and ERK phosphorylation in granule precursor tumour cells
  89. Intracellular pH regulation in heart
  90. Confocal Imaging Of Extracellular pH With Fluorescein Derivatives
  91. Modulation Of Cardiac Na+/H+ Exchange Activity By Muscarinic Agonists, Nitric Oxide and Cyclic GMP
  92. Comparison of pH-dependence of Carbonic Anhydrase Activity in vitro and in Living Cells
  93. Pushing and Pulling the Cardiac Sodium/Hydrogen Exchanger
  94. Ca2+-Mobility in the Sarcoplasmic Reticulum of Ventricular Myocytes Is Low
  95. Cancer-associated, hypoxia-inducible carbonic anhydrase IX facilitates CO2diffusion
  96. Extracellular Acidification Elicits Spatially and Temporally Distinct Ca 2+ Signals
  97. Tumor-associated Carbonic Anhydrase 9 Spatially Coordinates Intracellular pH in Three-dimensional Multicellular Growths
  98. Measuring and Modeling Chloride-Hydroxyl Exchange in the Guinea-Pig Ventricular Myocyte
  99. S0859, an N -cyanosulphonamide inhibitor of sodium-bicarbonate cotransport in the heart
  100. H + Ion Activation and Inactivation of the Ventricular Gap Junction
  101. Regulation of tumor pH and the role of carbonic anhydrase 9
  102. pH-Dependence of Extrinsic and Intrinsic H+-Ion Mobility in the Rat Ventricular Myocyte, Investigated Using Flash Photolysis of a Caged-H+ Compound
  103. pH-Regulated Na+ Influx into the Mammalian Ventricular Myocyte: The Relative Role of Na+-H+ Exchange and Na+-HCO3- Co-Transport
  104. Spatial aspects of intracellular pH regulation in heart muscle
  105. Relationship between intracellular pH and proton mobility in rat and guinea-pig ventricular myocytes
  106. Spatial Regulation of Intracellular pH in the Ventricular Myocyte
  107. Experimental Generation and Computational Modeling of Intracellular pH Gradients in Cardiac Myocytes
  108. Functional diversity of electrogenic Na+-HCO3−cotransport in ventricular myocytes from rat, rabbit and guinea pig
  109. Novel method for measuring junctional proton permeation in isolated ventricular myocyte cell pairs
  110. Temperature dependence of Na+−H+exchange, Na+−HCO3−co-transport, intracellular buffering and intracellular pH in guinea-pig ventricular myocytes
  111. Proton Permeation Through the Myocardial Gap Junction
  112. Modelling intracellular H+ ion diffusion
  113. Intracellular proton mobility and buffering power in cardiac ventricular myocytes from rat, rabbit, and guinea pig
  114. Amino Acid Transport
  115. Functional and molecular determination of carbonic anhydrase levels in bovine and cultured human chondrocytes