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  1. Evaluating the Performance of Hyperspectral Imaging Endoscopes: Mitigating Parameters Affecting Spectral Accuracy
  2. A Case Study of Integrating AI Literacy Education in a Biology Class
  3. Evaluating Normalization Methods for Robust Spectral Performance Assessments of Hyperspectral Imaging Cameras
  4. Comparing Performance of Spectral Image Analysis Approaches for Detection of Cellular Signals in Time-Lapse Hyperspectral Imaging Fluorescence Excitation-Scanning Microscopy
  5. Data from Suppression of Colon Tumorigenesis in Mutant <i>Apc</i> Mice by a Novel PDE10 Inhibitor that Reduces Oncogenic β-Catenin
  6. Data from Suppression of Colon Tumorigenesis in Mutant <i>Apc</i> Mice by a Novel PDE10 Inhibitor that Reduces Oncogenic β-Catenin
  7. Supplemental Figure 1 from Suppression of Colon Tumorigenesis in Mutant <i>Apc</i> Mice by a Novel PDE10 Inhibitor that Reduces Oncogenic β-Catenin
  8. Supplemental Figure 1 from Suppression of Colon Tumorigenesis in Mutant <i>Apc</i> Mice by a Novel PDE10 Inhibitor that Reduces Oncogenic β-Catenin
  9. Supplemental Figure 2A from Suppression of Colon Tumorigenesis in Mutant <i>Apc</i> Mice by a Novel PDE10 Inhibitor that Reduces Oncogenic β-Catenin
  10. Supplemental Figure 2A from Suppression of Colon Tumorigenesis in Mutant <i>Apc</i> Mice by a Novel PDE10 Inhibitor that Reduces Oncogenic β-Catenin
  11. Supplemental Figure 2B from Suppression of Colon Tumorigenesis in Mutant <i>Apc</i> Mice by a Novel PDE10 Inhibitor that Reduces Oncogenic β-Catenin
  12. Supplemental Figure 2B from Suppression of Colon Tumorigenesis in Mutant <i>Apc</i> Mice by a Novel PDE10 Inhibitor that Reduces Oncogenic β-Catenin
  13. Supplemental Figure 2C from Suppression of Colon Tumorigenesis in Mutant <i>Apc</i> Mice by a Novel PDE10 Inhibitor that Reduces Oncogenic β-Catenin
  14. Supplemental Figure 2C from Suppression of Colon Tumorigenesis in Mutant <i>Apc</i> Mice by a Novel PDE10 Inhibitor that Reduces Oncogenic β-Catenin
  15. Supplemental Figure 3A from Suppression of Colon Tumorigenesis in Mutant <i>Apc</i> Mice by a Novel PDE10 Inhibitor that Reduces Oncogenic β-Catenin
  16. Supplemental Figure 3A from Suppression of Colon Tumorigenesis in Mutant <i>Apc</i> Mice by a Novel PDE10 Inhibitor that Reduces Oncogenic β-Catenin
  17. Supplemental Figure 3B from Suppression of Colon Tumorigenesis in Mutant <i>Apc</i> Mice by a Novel PDE10 Inhibitor that Reduces Oncogenic β-Catenin
  18. Supplemental Figure 3B from Suppression of Colon Tumorigenesis in Mutant <i>Apc</i> Mice by a Novel PDE10 Inhibitor that Reduces Oncogenic β-Catenin
  19. Supplemental Figure 3C from Suppression of Colon Tumorigenesis in Mutant <i>Apc</i> Mice by a Novel PDE10 Inhibitor that Reduces Oncogenic β-Catenin
  20. Supplemental Figure 3C from Suppression of Colon Tumorigenesis in Mutant <i>Apc</i> Mice by a Novel PDE10 Inhibitor that Reduces Oncogenic β-Catenin
  21. Supplemental Figure 4A from Suppression of Colon Tumorigenesis in Mutant <i>Apc</i> Mice by a Novel PDE10 Inhibitor that Reduces Oncogenic β-Catenin
  22. Supplemental Figure 4A from Suppression of Colon Tumorigenesis in Mutant <i>Apc</i> Mice by a Novel PDE10 Inhibitor that Reduces Oncogenic β-Catenin
  23. Supplemental Figure 4B from Suppression of Colon Tumorigenesis in Mutant <i>Apc</i> Mice by a Novel PDE10 Inhibitor that Reduces Oncogenic β-Catenin
  24. Supplemental Figure 4B from Suppression of Colon Tumorigenesis in Mutant <i>Apc</i> Mice by a Novel PDE10 Inhibitor that Reduces Oncogenic β-Catenin
  25. Supplemental Figure 4C from Suppression of Colon Tumorigenesis in Mutant <i>Apc</i> Mice by a Novel PDE10 Inhibitor that Reduces Oncogenic β-Catenin
  26. Supplemental Figure 4C from Suppression of Colon Tumorigenesis in Mutant <i>Apc</i> Mice by a Novel PDE10 Inhibitor that Reduces Oncogenic β-Catenin
  27. Supplemental Figure 5 from Suppression of Colon Tumorigenesis in Mutant <i>Apc</i> Mice by a Novel PDE10 Inhibitor that Reduces Oncogenic β-Catenin
  28. Supplemental Figure 5 from Suppression of Colon Tumorigenesis in Mutant <i>Apc</i> Mice by a Novel PDE10 Inhibitor that Reduces Oncogenic β-Catenin
  29. Supplemental Figure 6 from Suppression of Colon Tumorigenesis in Mutant <i>Apc</i> Mice by a Novel PDE10 Inhibitor that Reduces Oncogenic β-Catenin
  30. Supplemental Figure 6 from Suppression of Colon Tumorigenesis in Mutant <i>Apc</i> Mice by a Novel PDE10 Inhibitor that Reduces Oncogenic β-Catenin
  31. Supplemental Figure 7 from Suppression of Colon Tumorigenesis in Mutant <i>Apc</i> Mice by a Novel PDE10 Inhibitor that Reduces Oncogenic β-Catenin
  32. Supplemental Figure 7 from Suppression of Colon Tumorigenesis in Mutant <i>Apc</i> Mice by a Novel PDE10 Inhibitor that Reduces Oncogenic β-Catenin
  33. Supplemental Figure Legends from Suppression of Colon Tumorigenesis in Mutant <i>Apc</i> Mice by a Novel PDE10 Inhibitor that Reduces Oncogenic β-Catenin
  34. Supplemental Figure Legends from Suppression of Colon Tumorigenesis in Mutant <i>Apc</i> Mice by a Novel PDE10 Inhibitor that Reduces Oncogenic β-Catenin
  35. Endoscopy Lifetime Systems Architecture: Scoping Out the Past to Diagnose the Future Technology
  36. Microscopy is better in color: development of a streamlined spectral light path for real-time multiplex fluorescence microscopy
  37. Suppression of Colon Tumorigenesis in MutantApcMice by a Novel PDE10 Inhibitor that Reduces Oncogenic β-Catenin
  38. Excitation-scanning hyperspectral video endoscopy: enhancing the light at the end of the tunnel
  39. Cystatin C regulates the cytotoxicity of infection‐induced endothelial‐derived β‐amyloid
  40. Development of an endothelial cell-restricted transgenic reporter rat: a resource for physiological studies of vascular biology
  41. Front Cover: Label‐free spectroscopic tissue characterization using fluorescence excitation‐scanning spectral imaging (J. Biophotonics 2/2020)
  42. Label‐free spectroscopic tissue characterization using fluorescence excitation‐scanning spectral imaging
  43. Human ASIC1a mediates stronger acid‐induced responses as compared with mouse ASICIa
  44. Pseudomonas aeruginosa infection liberates transmissible, cytotoxic prion amyloids
  45. Hyperspectral imaging fluorescence excitation scanning for colon cancer detection
  46. Excitation-scanning hyperspectral imaging system for microscopic and endoscopic applications
  47. Feasibility for detection of autofluorescent signatures in rat organs using a novel excitation-scanning hyperspectral imaging system
  48. Overcoming limitations of FRET measurements
  49. Three-dimensional measurement of cAMP gradients using hyperspectral confocal microscopy
  50. Hyperspectral imaging fluorescence excitation scanning for detecting colorectal cancer: pilot study
  51. LED-based endoscopic light source for spectral imaging
  52. Modification of Fibers with Nanostructures Using Reactive Dye Chemistry
  53. Automated Image Analysis of FRET Signals for Subcellular cAMP Quantification
  54. Channel-Based Reporters for cAMP Detection
  55. FRET: Signals hidden within the noise
  56. A Device for Performing Automated Balloon Catheter Inflation Ischemia Studies
  57. Excitation-scanning hyperspectral imaging microscope
  58. Can we decipher the information content contained within cyclic nucleotide signals?
  59. Thin-film tunable filters for hyperspectral fluorescence microscopy
  60. An Approach for Characterizing and Comparing Hyperspectral Microscopy Systems
  61. Assessing FRET using spectral techniques
  62. The Feasibility of Using Millimeter Wave Heating for Non-Invasive Measurement of Skin Blood Flow in Humans
  63. Linear unmixing of hyperspectral images for analysis of fluorescently-labeled cellswith imperfect endmember spectra
  64. Tunable thin-film optical filters for hyperspectral microscopy
  65. Hyperspectral Imaging of FRET-Based cGMP Probes
  66. Assessment of cellular mechanisms contributing to cAMP compartmentalization in pulmonary microvascular endothelial cells
  67. Hyperspectral imaging microscopy for identification and quantitative analysis of fluorescently-labeled cells in highly autofluorescent tissue
  68. Assessment Of The Contributions Of Phosphodiesterase Activity And Cellular Shape To The Compartmentalization Of Camp Signals - A Computational Study
  69. A Spectral Imaging Method For Monitoring Infused Endothelial Progenitor Cell Distribution In Normal Lung
  70. State of the Art in Information Extraction and Quantitative Analysis for Multimodality Biomolecular Imaging
  71. Hyperspectral small animal fluorescence imaging: spectral selection imaging
  72. A calibrated tissue phantom for small animal fluorescence imaging
  73. An endoscope for simultaneous macroscopic navigation and microscopic inspection of luminal sidewalls
  74. An excitation wavelength–scanning spectral imaging system for preclinical imaging
  75. Design of a wavelength-tunable light source using an acousto-optic tunable filter
  76. Application of quantitative morphological cytometry for evaluation of shear stress: potential for HCS systems
  77. Modeling in vivo fluorescence of small animals using TracePro software
  78. Quantification of morphology of bacterial colonies using laser scatter measurements and solid element optical modeling
  79. Sol-gel derived materials as substrates for neuronal differentiation: effects of surface features and protein conformation
  80. Multispectral imaging analysis: spectral deconvolution and applications in biology