All Stories

  1. A Novel Engineering-Based C¹ Piecewise Model for Wound-Healing Dynamics
  2. An Approximate Force–Indentation Equation for n-Sided Blunt Pyramidal Indenters
  3. Artificial Intelligence and Machine Learning in AFM-Based Nanomechanical Biomarkers: From Force Curves and Stiffness Maps to Disease Classification and Treatment Monitoring
  4. AFM in Clinical Oncology: Towards a Theoretical Framework for Highly Reproducible Mechanical Measurements for Cancer Diagnosis and Treatment Monitoring
  5. Mathematical modeling of tumor nanomechanical fingerprints: A weighted skew-normal distribution approach for cancer diagnosis and treatment monitoring
  6. Nonlinear Modeling and Perturbation Analysis of Cell Population Dynamics Under External Factors—A Pilot Study of Low-Level Red Laser Irradiation on Lung Cancer Cells
  7. Atomic force microscopy‐based nanomechanical signatures as cancer biomarkers in a nutshell
  8. Pharmacological Targeting of Midkine (MDK) Reveals Stiffness-Dependent Control of Hepatocellular Carcinoma Invasiveness
  9. A Practical Approach for Determining Depth-Dependent Mechanical Properties of Soft Materials in AFM Indentation via Polynomial Fitting and a New Model for Cellular Mechanics
  10. Mechanical Nonlinear Oscillations Using a Hertzian-Type Restoring Force
  11. Beyond Hertz: Accurate Analytical Force–Indentation Equations for AFM Nanoindentation with Spherical Tips
  12. Quantitative criteria for the validity of the elastic half-space assumption in AFM nanoindentation
  13. Global linear modeling of AFM indentation curves for soft samples with various indenter geometries
  14. Atomic Force Microscopy‐Based Nanomechanical Signatures for Staging Classification and Drug Response in Pulmonary Fibrosis
  15. Photodynamic Therapy and Tumor Microenvironment-Targeting Strategies: A Novel Synergy at the Frontier of Cancer Treatment
  16. Photodynamic Therapy and Tumor Microenvironment-Targeting Strategies: A Novel Synergy at the Frontier of Cancer Treatment
  17. The Young’s Modulus as a Mechanical Biomarker in AFM Experiments: A Tool for Cancer Diagnosis and Treatment Monitoring
  18. A Novel Approach to Calculate the Range of High-Energy Charged Particles Within a Medium
  19. Monitoring the Distance and Velocity of Protons in a Medium for Biomedical Applications Using a Straightforward Mathematical Approach
  20. Simplifying Data Processing in AFM Nanoindentation Experiments on Thin Samples
  21. Open‐Source Tools for Assessing Cytoskeleton Properties in Pathological Conditions From Microscopy Images: An Application Note
  22. Accurate Modelling of AFM Force-Indentation Curves with Blunted Indenters at Small Indentation Depths
  23. Towards Simpler Modelling Expressions for the Mechanical Characterization of Soft Materials
  24. Utilizing collagen-coated hydrogels with defined stiffness as calibration standards for AFM experiments on soft biological materials: the case of lung cells and tissue
  25. Data from Stabilizing Tumor-Resident Mast Cells Restores T-Cell Infiltration and Sensitizes Sarcomas to PD-L1 Inhibition
  26. Data from Stabilizing Tumor-Resident Mast Cells Restores T-Cell Infiltration and Sensitizes Sarcomas to PD-L1 Inhibition
  27. Supplementary Figure S1 from Stabilizing Tumor-Resident Mast Cells Restores T-Cell Infiltration and Sensitizes Sarcomas to PD-L1 Inhibition
  28. Supplementary Figure S1 from Stabilizing Tumor-Resident Mast Cells Restores T-Cell Infiltration and Sensitizes Sarcomas to PD-L1 Inhibition
  29. Supplementary Figure S2 from Stabilizing Tumor-Resident Mast Cells Restores T-Cell Infiltration and Sensitizes Sarcomas to PD-L1 Inhibition
  30. Supplementary Figure S2 from Stabilizing Tumor-Resident Mast Cells Restores T-Cell Infiltration and Sensitizes Sarcomas to PD-L1 Inhibition
  31. Supplementary Figure S3 from Stabilizing Tumor-Resident Mast Cells Restores T-Cell Infiltration and Sensitizes Sarcomas to PD-L1 Inhibition
  32. Supplementary Figure S3 from Stabilizing Tumor-Resident Mast Cells Restores T-Cell Infiltration and Sensitizes Sarcomas to PD-L1 Inhibition
  33. Supplementary Figure S4 from Stabilizing Tumor-Resident Mast Cells Restores T-Cell Infiltration and Sensitizes Sarcomas to PD-L1 Inhibition
  34. Supplementary Figure S4 from Stabilizing Tumor-Resident Mast Cells Restores T-Cell Infiltration and Sensitizes Sarcomas to PD-L1 Inhibition
  35. Supplementary Figure S5 from Stabilizing Tumor-Resident Mast Cells Restores T-Cell Infiltration and Sensitizes Sarcomas to PD-L1 Inhibition
  36. Supplementary Figure S5 from Stabilizing Tumor-Resident Mast Cells Restores T-Cell Infiltration and Sensitizes Sarcomas to PD-L1 Inhibition
  37. Supplementary Figure S6 from Stabilizing Tumor-Resident Mast Cells Restores T-Cell Infiltration and Sensitizes Sarcomas to PD-L1 Inhibition
  38. Supplementary Figure S6 from Stabilizing Tumor-Resident Mast Cells Restores T-Cell Infiltration and Sensitizes Sarcomas to PD-L1 Inhibition
  39. Supplementary Figure S7 from Stabilizing Tumor-Resident Mast Cells Restores T-Cell Infiltration and Sensitizes Sarcomas to PD-L1 Inhibition
  40. Supplementary Figure S7 from Stabilizing Tumor-Resident Mast Cells Restores T-Cell Infiltration and Sensitizes Sarcomas to PD-L1 Inhibition
  41. Supplementary Figure S8 from Stabilizing Tumor-Resident Mast Cells Restores T-Cell Infiltration and Sensitizes Sarcomas to PD-L1 Inhibition
  42. Supplementary Figure S8 from Stabilizing Tumor-Resident Mast Cells Restores T-Cell Infiltration and Sensitizes Sarcomas to PD-L1 Inhibition
  43. Supplementary Methods S1 from Stabilizing Tumor-Resident Mast Cells Restores T-Cell Infiltration and Sensitizes Sarcomas to PD-L1 Inhibition
  44. Supplementary Methods S1 from Stabilizing Tumor-Resident Mast Cells Restores T-Cell Infiltration and Sensitizes Sarcomas to PD-L1 Inhibition
  45. Supplementary Table S1 from Stabilizing Tumor-Resident Mast Cells Restores T-Cell Infiltration and Sensitizes Sarcomas to PD-L1 Inhibition
  46. Supplementary Table S1 from Stabilizing Tumor-Resident Mast Cells Restores T-Cell Infiltration and Sensitizes Sarcomas to PD-L1 Inhibition
  47. Supplementary Table S2 from Stabilizing Tumor-Resident Mast Cells Restores T-Cell Infiltration and Sensitizes Sarcomas to PD-L1 Inhibition
  48. Supplementary Table S2 from Stabilizing Tumor-Resident Mast Cells Restores T-Cell Infiltration and Sensitizes Sarcomas to PD-L1 Inhibition
  49. A Linear Fit for Atomic Force Microscopy Nanoindentation Experiments on Soft Samples
  50. Stabilizing Tumor-Resident Mast Cells Restores T-Cell Infiltration and Sensitizes Sarcomas to PD-L1 Inhibition
  51. Advances in Optical Fiber Speckle Sensing: A Comprehensive Review
  52. Midkine (MDK) in Hepatocellular Carcinoma: More than a Biomarker
  53. A new method for AFM mechanical characterization of heterogeneous samples with finite thickness
  54. Overcoming Challenges and Limitations Regarding the Atomic Force Microscopy Imaging and Mechanical Characterization of Nanofibers
  55. A New Elementary Method for Determining the Tip Radius and Young’s Modulus in AFM Spherical Indentations
  56. Fascin-1 in Cancer Cell Metastasis: Old Target-New Insights
  57. AFM Indentation on Highly Heterogeneous Materials Using Different Indenter Geometries
  58. Pancreatic Cancer Presents Distinct Nanomechanical Properties During Progression
  59. 3D AFM Nanomechanical Characterization of Biological Materials
  60. Determining Spatial Variability of Elastic Properties for Biological Samples Using AFM
  61. Nanomechanical properties of solid tumors as treatment monitoring biomarkers
  62. Atomic Force Microscopy Nanoindentation Method on Collagen Fibrils
  63. Assessing Collagen D-Band Periodicity with Atomic Force Microscopy
  64. Is It Possible to Directly Determine the Radius of a Spherical Indenter Using Force Indentation Data on Soft Samples?
  65. Synthesis, characterization and nonlinear optical response of polyelectrolyte-stabilized copper hydroxide and copper oxide colloidal nanohybrids
  66. How did correlative atomic force microscopy and super-resolution microscopy evolve in the quest for unravelling enigmas in biology?
  67. A New Approach for the AFM-Based Mechanical Characterization of Biological Samples
  68. Is it necessary to calculate Young’s modulus in AFM nanoindentation experiments regarding biological samples?
  69. A discussion regarding the application of the Hertz contact theory on biological samples in AFM nanoindentation experiments
  70. Collagen content and extracellular matrix cause cytoskeletal remodelling in pancreatic fibroblasts
  71. Atomic Force Microscopy: In Sickness and in Health
  72. Atomic Force Microscopy on Biological Materials Related to Pathological Conditions
  73. A discussion regarding the approximation of cylindrical and spherical shaped samples as half spaces in AFM nanoindentation experiments
  74. Transforming growth factor-β modulates pancreatic cancer associated fibroblasts cell shape, stiffness and invasion
  75. Atomic force microscopy nano-characterization of 3D collagen gels with tunable stiffness
  76. AFM assessing of nanomechanical fingerprints for cancer early diagnosis and classification: from single cell to tissue level
  77. Identification of Ras suppressor-1 (RSU-1) as a potential breast cancer metastasis biomarker using a three-dimensional in vitro approach
  78. Vasodilator-Stimulated Phosphoprotein (VASP) depletion from breast cancer MDA-MB-231 cells inhibits tumor spheroid invasion through downregulation of Migfilin, β-catenin and urokinase-plasminogen activator (uPA)
  79. Atomic force microscopy for university students: applications in biomaterials
  80. Atomic Force Microscopy for Collagen-Based Nanobiomaterials
  81. Exploring the Nano-Surface of Collagenous and Other Fibrotic Tissues with AFM
  82. Investigation of the mechanical properties of collagen fibrils under the influence of low power red laser irradiation
  83. Big data in healthcare: a discussion on the big challenges
  84. AFM Investigation of the Influence of Red Light Irradiation on Collagen
  85. Probing Collagen Nanocharacteristics After Low-Level Red Laser Irradiation
  86. Atomic Force Microscopy Probing of Cancer Cells and Tumor Microenvironment Components
  87. The Significance of the Percentage Differences of Young’s Modulus in the AFM Nanoindentation Procedure
  88. Atomic force microscopy investigation of the interaction of low-level laser irradiation of collagen thin films in correlation with fibroblast response
  89. Remodeling Components of the Tumor Microenvironment to Enhance Cancer Therapy
  90. The effects of UV irradiation on collagen D-band revealed by atomic force microscopy
  91. Investigation of the influence of UV irradiation on collagen thin films by AFM imaging
  92. The ‘Magic Light’: A Discussion on Laser Ethics
  93. AFM Multimode Imaging and Nanoindetation Method for Assessing Collagen Nanoscale Thin Films Heterogeneity
  94. Surface nanoscale imaging of collagen thin films by Atomic Force Microscopy
  95. Nanotopography of collagen thin films in correlation with fibroblast response
  96. Nanotechnology-supported THz medical imaging
  97. Atomic force imaging microscopy investigation of the interaction of ultraviolet radiation with collagen thin films
  98. Atomic Force Microscopy surface nanocharacterization of UV-irradiated collagen thin films
  99. Mechanical properties of collagen fibrils on thin films by Atomic Force Microscopy nanoindentation
  100. Combined information from AFM imaging and SHG signal analysis of collagen thin films
  101. Atomic Force Microscopy Imaging of the Nanoscale Assembly of Type I Collagen on Controlled Polystyrene Particles Surfaces
  102. Surface Characterization of Collagen Films by Atomic Force Microscopy
  103. Combined SHG signal information with AFM imaging to assess conformational changes in collagen