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  1. Akt activator SC79 stimulates antibacterial nitric oxide generation in human nasal epithelial cells in vitro
  2. Interkingdom Detection of Bacterial Quorum-Sensing Molecules by Mammalian Taste Receptors
  3. Utilizing the Off-Target Effects of T1R3 Antagonist Lactisole to Enhance Nitric Oxide Production in Basal Airway Epithelial Cells
  4. Savory Signaling: T1R Umami Receptor Modulates Endoplasmic Reticulum Calcium Store Content and Release Dynamics in Airway Epithelial Cells
  5. Savory Signaling: T1R umami receptor modulates endoplasmic reticulum calcium store content and release dynamics in airway epithelial cells
  6. Lidocaine Induces Apoptosis in Head and Neck Squamous Cell Carcinoma Cells Through Activation of Bitter Taste Receptor T2R14
  7. Akt activator SC79 stimulates antibacterial nitric oxide production from human nasal epithelial cells and increases macrophage phagocytosisin vitro
  8. Taste receptor T1R3 in nasal cilia detectsStaphylococcus aureusD-amino acids to enhance apical glucose uptake
  9. Bitter taste receptor-stimulated nitric oxide innate immune responses are reduced by loss of CFTR function in nasal epithelial cells and macrophages
  10. HSP90 Modulates T2R Bitter Taste Receptor Nitric Oxide Production and Innate Immune Responses in Human Airway Epithelial Cells and Macrophages
  11. Cilia Stimulatory and Antibacterial Activities of T2R Bitter Taste Receptor Agonist Diphenhydramine: Insights into Repurposing Bitter Drugs for Nasal Infections
  12. Cilia stimulatory and antibacterial activities of bitter receptor agonist diphenhydramine: insights into potential complimentary strategies for CF nasal infections
  13. The bitter end: T2R bitter receptor agonists elevate nuclear calcium and induce apoptosis in non-ciliated airway epithelial cells
  14. T2R bitter taste receptors regulate apoptosis and may be associated with survival in head and neck squamous cell carcinoma
  15. HSP90 function is required for T2R bitter taste receptor nitric oxide production and innate immune responses in human airway epithelial cells and macrophages
  16. Small-molecule Akt-activation in airway cells induces NO production and reduces IL-8 transcription through Nrf-2
  17. Neuropeptide Y Reduces Nasal Epithelial T2R Bitter Taste Receptor–Stimulated Nitric Oxide Production
  18. T2R bitter taste receptors regulate apoptosis and may be associated with survival in head and neck squamous cell carcinoma
  19. The bitter end: T2R bitter receptor agonists elevate nuclear calcium and induce apoptosis in non-ciliated airway epithelial cells
  20. PAR-2-activated secretion by airway gland serous cells: role for CFTR and inhibition by Pseudomonas aeruginosa
  21. Polarization of protease-activated receptor 2 (PAR-2) signaling is altered during airway epithelial remodeling and deciliation
  22. Bitter taste receptors stimulate phagocytosis in human macrophages through calcium, nitric oxide, and cyclic-GMP signaling
  23. Neuropeptide regulation of secretion and inflammation in human airway gland serous cells
  24. Altered polarization of PAR-2 signaling during airway epithelial remodeling
  25. Bitter taste receptors stimulate phagocytosis in human macrophages through calcium, nitric oxide, and cyclic-GMP signaling
  26. Taste Receptors in Upper Airway Innate Immunity
  27. Inverse regulation of secretion and inflammation in human airway gland serous cells by neuropeptides upregulated in allergy and asthma
  28. Activation of airway epithelial bitter taste receptors byPseudomonas aeruginosaquinolones modulates calcium, cyclic-AMP, and nitric oxide signaling
  29. CALHM3 Is Essential for Rapid Ion Channel-Mediated Purinergic Neurotransmission of GPCR-Mediated Tastes
  30. The Role of Quinine-Responsive Taste Receptor Family 2 in Airway Immune Defense and Chronic Rhinosinusitis
  31. Plant flavones enhance antimicrobial activity of respiratory epithelial cell secretions against Pseudomonas aeruginosa
  32. Protease-activated receptor 2 activates airway apical membrane chloride permeability and increases ciliary beating
  33. Bacterial d-amino acids suppress sinonasal innate immunity through sweet taste receptors in solitary chemosensory cells
  34. CALHM1-Mediated ATP Release and Ciliary Beat Frequency Modulation in Nasal Epithelial Cells
  35. Sinonasal T2R-mediated nitric oxide production in response to Bacillus cereus
  36. Denatonium-induced sinonasal bacterial killing may play a role in chronic rhinosinusitis outcomes
  37. Flavones modulate respiratory epithelial innate immunity: Anti-inflammatory effects and activation of the T2R14 receptor
  38. Nitric oxide production is stimulated by bitter taste receptors ubiquitously expressed in the sinonasal cavity
  39. Expression of dermcidin in human sinonasal secretions
  40. Fungal Aflatoxins Reduce Respiratory Mucosal Ciliary Function
  41. Human upper airway epithelium produces nitric oxide in response toStaphylococcus epidermidis
  42. In vitro effects of anthocyanidins on sinonasal epithelial nitric oxide production and bacterial physiology
  43. Bitter Taste Bodyguards
  44. Taste Receptors in Upper Airway Immunity
  45. Chronic rhinosinusitis pathogenesis
  46. TAS2R38genotype predicts surgical outcome in nonpolypoid chronic rhinosinusitis
  47. Staphylococcus aureustriggers nitric oxide production in human upper airway epithelium
  48. Corticosteroid Use Does Not Alter Nasal Mucus Glucose in Chronic Rhinosinusitis
  49. Role of the bitter taste receptor T2R38 in upper respiratory infection and chronic rhinosinusitis
  50. Bitter and sweet taste receptors in the respiratory epithelium in health and disease
  51. Taste receptors in innate immunity
  52. Sinonasal Solitary Chemosensory Cells “Taste” the Upper Respiratory Environment to Regulate Innate Immunity
  53. Ca2+ signaling and fluid secretion by secretory cells of the airway epithelium
  54. In vitroStudies of a Distillate of Rectified Essential Oils on Sinonasal Components of Mucociliary Clearance
  55. Bitter and sweet taste receptors regulate human upper respiratory innate immunity
  56. The bitter taste receptor T2R38 is an independent risk factor for chronic rhinosinusitis requiring sinus surgery
  57. Mouse nasal epithelial innate immune responses to Pseudomonas aeruginosa quorum-sensing molecules require taste signaling components
  58. Vasoactive intestinal peptide regulates sinonasal mucociliary clearance and synergizes with histamine in stimulating sinonasal fluid secretion
  59. The TERE1 protein interacts with mitochondrial TBL2: Regulation of trans‐membrane potential, ROS/RNS and SXR target genes
  60. The Emerging Role of the Bitter Taste Receptor T2R38 in Upper Respiratory Infection and Chronic Rhinosinusitis
  61. Genetics of the taste receptor T2R38 correlates with chronic rhinosinusitis necessitating surgical intervention
  62. T2R38 taste receptor polymorphisms underlie susceptibility to upper respiratory infection
  63. Why Mouse Airway Submucosal Gland Serous Cells Do Not Secrete Fluid in Response to cAMP Stimulation
  64. Calcium homeostasis modulator 1 (CALHM1) is the pore-forming subunit of an ion channel that mediates extracellular Ca 2+ regulation of neuronal excitability
  65. Molecular modulation of airway epithelial ciliary response to sneezing
  66. cAMP-activated Ca2+ signaling is required for CFTR-mediated serous cell fluid secretion in porcine and human airways
  67. AMPK supports growth in Drosophila by regulating muscle activity and nutrient uptake in the gut
  68. Mechanisms of Ca2+-stimulated fluid secretion by porcine bronchial submucosal gland serous acinar cells
  69. Respiratory function during infancy in survivors of the INNOVO trial
  70. Interleukin-17A induces bicarbonate secretion in normal human bronchial epithelial cells
  71. HCO3− Secretion by Murine Nasal Submucosal Gland Serous Acinar Cells during Ca2+-stimulated Fluid Secretion
  72. Optical imaging of Ca2+-evoked fluid secretion by murine nasal submucosal gland serous acinar cells
  73. Uncoupling retro-translocation and degradation in the ER-associated degradation of a soluble protein
  74. Reconstitution of Endoplasmic Reticulum-Associated Degradation Using Yeast Membranes and Cytosol