All Stories

  1. Microtubule poleward flux as a target for modifying chromosome segregation errors
  2. Metaphase kinetochore movements are regulated by kinesin-8 motors and microtubule dynamic instability
  3. Torques and Forces in the Mitotic Spindle
  4. Optogenetic reversible knocksideways, laser ablation, and photoactivation on the mitotic spindle in human cells
  5. Live cell X-ray imaging of autophagic vacuoles formation and chromatin dynamics in fission yeast
  6. Microtubule Sliding within the Bridging Fiber Pushes Kinetochore Fibers Apart to Segregate Chromosomes
  7. The mitotic spindle is chiral due to torques generated by motor proteins
  8. Mitotic spindle: kinetochore fibers hold on tight to interpolar bundles
  9. Pivot-and-bond model explains microtubule bundle formation
  10. PRC1‐labeled microtubule bundles and kinetochore pairs show one‐to‐one association in metaphase
  11. Meiotic Nuclear Oscillations Are Necessary to Avoid Excessive Chromosome Associations
  12. Mitotic Spindle Assembly: Building the Bridge between Sister K-Fibers
  13. Iva Tolić: Movements inside Cells and across Countries
  14. Cell division: Forces in the spindle
  15. Paired arrangement of kinetochores together with microtubule pivoting and dynamics drive kinetochore capture in meiosis I
  16. Bridging the gap between sister kinetochores
  17. Relaxation of interkinetochore tension after severing of a k-fiber depends on the length of the k-fiber stub
  18. Laser microsurgery reveals conserved viscoelastic behavior of the kinetochore
  19. Why publish single observations? Because Science Matters.
  20. Overlap microtubules link sister k-fibres and balance the forces on bi-oriented kinetochores
  21. Pulled Polymer Loops as a Model for the Alignment of Meiotic Chromosomes
  22. Fusion leads to effective segregation of damage during cell division: An analytical treatment
  23. Asymmetric damage segregation at cell division via protein aggregate fusion and attachment to organelles
  24. Kinesin-8 Motors Improve Nuclear Centering by Promoting Microtubule Catastrophe
  25. Single-molecule imaging of cytoplasmic dynein in vivo
  26. A Bundle of Antiparallel Microtubules Connects Sister K-Fibers and Balances Forces within the Metaphase Spindle
  27. Real-Time Imaging of DNA Damage in Yeast Cells Using Ultra-Short Near-Infrared Pulsed Laser Irradiation
  28. Isotropic actomyosin dynamics promote organization of the apical cell cortex in epithelial cells
  29. Fusion of Protein Aggregates Facilitates Asymmetric Damage Segregation
  30. Astral Microtubule Pivoting Promotes Their Search for Cortical Anchor Sites during Mitosis in Budding Yeast
  31. Swinging a sword: how microtubules search for their targets
  32. A divide and conquer strategy for the maximum likelihood localization of low intensity objects
  33. Dynein, microtubule and cargo: a ménage à trois
  34. Fission Yeast Does Not Age under Favorable Conditions, but Does So after Stress
  35. Dynein Motion Switches from Diffusive to Directed upon Cortical Anchoring
  36. Single-molecule imaging in vivo: the dancing building blocks of the cell
  37. Fluorescence Recovery After Photobleaching (FRAP) in the Fission Yeast Nucleus
  38. Pivoting of microtubules around the spindle pole accelerates kinetochore capture
  39. Identification and Regulation of a Molecular Module for Bleb-Based Cell Motility
  40. Life of a Single Dynein during Meiotic Nuclear Oscillations
  41. Microtubules Search for Lost Kinetochores by Pivoting Around the Spindle Pole
  42. Merotelic kinetochore attachment: causes and effects
  43. Iva Tolic-Nørrelykke
  44. Laser Ablation of the Microtubule Cytoskeleton: Setting Up and Working with an Ablation System
  45. Refreshed but vulnerable: Yeast daughter cells are more sensitive to stress than young mothers
  46. Laser microsurgery provides evidence for merotelic kinetochore attachments in fission yeast cells lacking Pcs1 or Clr4
  47. Cell Polarity: Which Way to Grow in an Electric Field?
  48. Force and length regulation in the microtubule cytoskeleton: lessons from fission yeast
  49. Collective Dynamics of Cytoplasmic Dynein Motors In Vitro
  50. Collective Action of Motor Proteins on Microtubules Regulates Large-Scale Forces in the Cell
  51. Optical Trapping and Laser Ablation of Microtubules in Fission Yeast
  52. Growth Pattern of Single Fission Yeast Cells Is Bilinear and Depends on Temperature and DNA Synthesis
  53. Dynein redistribution
  54. Association of mitochondria with spindle poles facilitates spindle alignment
  55. Push-me-pull-you: how microtubules organize the cell interior
  56. Bundling, sliding, and pulling microtubules in cells and in silico
  57. Spindle alignment
  58. tweezercalib 2.1: Faster version of MatLab package for precise calibration of optical tweezers
  59. QUANTITATIVE STUDIES OF SUBDIFFUSION IN LIVING CELLS AND ACTIN NETWORKS
  60. Hypergravity speeds up the development of T-lymphocyte motility
  61. tweezercalib 2.0: Faster version of MatLab package for precise calibration of optical tweezers
  62. Optical micromanipulation inside the cell: a focus in cell division
  63. Traction in smooth muscle cells varies with cell spreading
  64. Nuclear and Division-Plane Positioning Revealed by Optical Micromanipulation
  65. Optical micromanipulations inside yeast cells
  66. Laser nanosurgery and manipulation in living cells
  67. Anomalous Diffusion in Living Yeast Cells
  68. Positioning and Elongation of the Fission Yeast Spindle by Microtubule-Based Pushing
  69. MatLab program for precision calibration of optical tweezers
  70. Spatial and temporal traction response in human airway smooth muscle cells
  71. Cell prestress. II. Contribution of microtubules
  72. Cell prestress. I. Stiffness and prestress are closely associated in adherent contractile cells
  73. Traction fields, moments, and strain energy that cells exert on their surroundings
  74. Modeling the Insulin–Glucose Feedback System: The Significance of Pulsatile Insulin Secretion
  75. ChemInform Abstract: Complexity of Molecules.
  76. Complexity of Molecules†