All Stories

  1. Design-Based Research in Higher Education: Analysing Examples Through Activity Theory and Bakker’s Five Characteristics
  2. Cardiac myofibril networks induce shear stress
  3. Calcium handling in sheep ventricular cardiomyocytes during aging and pressure overload
  4. Calcium-dependent regulation of physiological vs pathological cardiomyocyte hypertrophy
  5. Cardiac myofibril networks induce shear stress
  6. A cross-scale analysis for the determinants of bonding dynamics on the distributions of rolling velocities of cells in microvessels
  7. The Human Cardiac “Age‐OME”: Age‐Specific Changes in Myocardial Molecular Expression
  8. The Molecular Landscape of the Ageing Human Heart
  9. Energy-based modelling of single actin filament polymerization using bond graphs
  10. Exploring Design-Based Research as a framework for addressing pedagogical problems faced by higher education
  11. Energy-based Modelling of Single Actin Filament Polymerisation Using Bond Graphs
  12. Genome-wide identification of replication fork stalling/pausing sites and the interplay between RNA Pol II transcription and DNA replication progression
  13. Optimizing coupling layer and superstrate thickness in attachable acoustofluidic devices
  14. Critical review of single-cell mechanotyping approaches for biomedical applications
  15. BondGraphs.jl: composable energy-based modelling in systems biology
  16. InsP3R-RyR channel crosstalk augments sarcoplasmic reticulum Ca2+ release and arrhythmogenic activity in post-MI pig cardiomyocytes
  17. Frontiers of Mathematical Biology: A workshop honouring Professor Edmund Crampin
  18. BondGraphs.jl: Composable energy-based modelling in systems biology
  19. Energy dependence of signalling dynamics and robustness in bacterial two component systems
  20. IP3R activity increases propensity of RyR-mediated sparks by elevating dyadic [Ca2+]
  21. Sub-wavelength acoustic stencil for tailored micropatterning
  22. CardioVinci: building blocks for virtual cardiac cells using deep learning
  23. Effects of altered cellular ultrastructure on energy metabolism in diabetic cardiomyopathy: an in silico study
  24. New revelations on the interplay between cardiomyocyte architecture and cardiomyocyte function in growth, health, and disease: a brief introduction
  25. The Cell Physiome: What Do We Need in a Computational Physiology Framework for Predicting Single-Cell Biology?
  26. Role of actin filaments and cis binding in cadherin clustering and patterning
  27. Effects of altered cellular ultrastructure on energy metabolism in diabetic cardiomyopathy – an in-silico study
  28. Cortical tension initiates the positive feedback loop between cadherin and F-actin
  29. Paradoxes of Hymenoptera flight muscles, extreme machines
  30. Multimodal imaging reveals membrane skeleton reorganisation during reticulocyte maturation and differences in dimple and rim regions of mature erythrocytes
  31. Improving student outcomes through transdisciplinary curriculum design in biomedical engineering
  32. Periodic Rayleigh streaming vortices and Eckart flow arising from traveling-wave-based diffractive acoustic fields
  33. Respiration mask waveguide optimisation for maximised speech intelligibility
  34. CardioVinci: building blocks for virtual cardiac cells using deep learning
  35. A toolbox for generating scalable mitral valve morphometric models
  36. EGFRvIII Promotes Cell Survival during Endoplasmic Reticulum Stress through a Reticulocalbin 1-Dependent Mechanism
  37. Cortical Tension Initiates the Positive Feedback Loop Between E-cadherin and F-actin
  38. EM-net: Deep learning for electron microscopy image segmentation
  39. EM-stellar: benchmarking deep learning for electron microscopy image segmentation
  40. Unconventional acoustic approaches for localized and designed micromanipulation
  41. Modelling cardiomyocyte energetics
  42. Surface area‐to‐volume ratio, not cellular viscoelasticity, is the major determinant of red blood cell traversal through small channels
  43. Membrane Tension Can Enhance Adaptation to Maintain Polarity of Migrating Cells
  44. An in-silico study to determine whether changes to mitochondria organization through engineered mitochondrial dynamics can enhance bioenergetics in cardiomyocytes
  45. Ca2+ Release via IP3 Receptors Shapes the Cardiac Ca2+ Transient for Hypertrophic Signaling
  46. IP3R activity increases frequency of RyR-mediated sparks by elevating dyadic Ca2+
  47. EM-stellar: benchmarking deep learning for electron microscopy image segmentation
  48. Surface area-to-volume ratio, not cellular rigidity, determines red blood cell traversal through small capillaries
  49. Membrane tension can enhance adaptation to maintain polarity of migrating cells
  50. EM-net: Deep learning for electron microscopy image segmentation
  51. Efficient estimation of load‐free left ventricular geometry and passive myocardial properties using principal component analysis.
  52. Automated segmentation of cardiomyocyte Z-disks from high-throughput scanning electron microscopy data
  53. Assessing Cardiomyocyte Excitation-Contraction Coupling Site Detection From Live Cell Imaging Using a Structurally-Realistic Computational Model of Calcium Release
  54. How Does the Internal Structure of Cardiac Muscle Cells Regulate Cellular Metabolism?
  55. Detecting RyR clusters with CaCLEAN: influence of spatial distribution and structural heterogeneity
  56. Multimodal analysis ofPlasmodium knowlesi‐infected erythrocytes reveals large invaginations, swelling of the host cell, and rheological defects
  57. Insights on the impact of mitochondrial organisation on bioenergetics in high-resolution computational models of cardiac cell architecture
  58. Automated framework to reconstruct 3D model of cardiac Z-disk: an image processing approach
  59. Assessment of single beat end-systolic elastance methods for quantifying ventricular contractility
  60. An automated workflow for segmenting single adult cardiac cells from large-volume serial block-face scanning electron microscopy data
  61. Insights on the impact of mitochondrial organisation on bioenergetics in high-resolution computational models of cardiac cell architecture
  62. Creating a Structurally Realistic Finite Element Geometric Model of a Cardiomyocyte to Study the Role of Cellular Architecture in Cardiomyocyte Systems Biology
  63. An Automated Workflow for Segmenting Single Adult Cardiac Cells from Large-Volume Serial Block-Face Scanning Electron Microscopy Data
  64. Erythrocyte β spectrin can be genetically targeted to protect mice from malaria
  65. Computational modeling of single-cell mechanics and cytoskeletal mechanobiology
  66. A Semi-Automated Workflow for Segmenting Contents of Single Cardiac Cells from Serial-Block-Face Scanning Electron Microscopy Data
  67. A computational study of the role of mitochondrial organization on cardiac bioenergetics
  68. Changes in mitochondrial morphology and organization can enhance energy supply from mitochondrial oxidative phosphorylation in diabetic cardiomyopathy
  69. Examination of the Effects of Heterogeneous Organization of RyR Clusters, Myofibrils and Mitochondria on Ca2+ Release Patterns in Cardiomyocytes
  70. Super-resolution fluorescence imaging to study cardiac biophysics: α-actinin distribution and Z-disk topologies in optically thick cardiac tissue slices
  71. Breast lesion co-localisation between X-ray and MR images using finite element modelling
  72. Modelling Prone to Supine Breast Deformation Under Gravity Loading Using Heterogeneous Finite Element Models
  73. OpenCMISS: A multi-physics & multi-scale computational infrastructure for the VPH/Physiome project
  74. Identification of mechanical properties of heterogeneous soft bodies using gravity loading
  75. Identification of mechanical properties of heterogeneous soft bodies using gravity loading
  76. Patient-Specific Modeling of Breast Biomechanics with Applications to Breast Cancer Detection and Treatment
  77. Mapping Breast Cancer Between Clinical X-Ray and MR Images
  78. Stochastic modelling of cardiac cell structure
  79. Breast Image Registration by Combining Finite Elements and Free-Form Deformations
  80. Mapping Microcalcifications Between 2D Mammograms and 3D MRI Using a Biomechanical Model of the Breast
  81. Method for Validating Breast Compression Models Using Normalised Cross-Correlation
  82. Modeling breast biomechanics for multi-modal image analysis-successes and challenges
  83. Modeling of the mechanical function of the human gastroesophageal junction using an anatomically realistic three-dimensional model
  84. Correlation of breast image alignment using biomechanical modelling
  85. Creating Individual-specific Biomechanical Models of the Breast for Medical Image Analysis
  86. Biomechanical modelling for breast image registration
  87. Frictional contact mechanics methods for soft materials: Application to tracking breast cancers
  88. Modelling Mammographic Compression of the Breast
  89. A biomechanical model of mammographic compressions
  90. Determining the finite elasticity reference state from a loaded configuration
  91. Finite Element Modelling of Breast Biomechanics: Directly Calculating the Reference State
  92. Computational modeling of the breast during mammography for tumor tracking
  93. The Breast Biomechanics Reference State for Multi-modal Image Analysis
  94. Towards Tracking Breast Cancer Across Medical Images Using Subject-Specific Biomechanical Models