All Stories

  1. Stern–Brocot arithmetic in dynamics of a biochemical reaction model
  2. On the coupling of intracellular K+ ${{\rm{K}}}^{+}$ to glycolytic oscillations in yeast
  3. Intracellular potassium ion is essential for glucose metabolism in yeast.
  4. Simple mathematical model of an enzyme reaction with complex behavior
  5. Differential contributions of the proteasome, autophagy, and chaperones to the clearance of arsenite-induced protein aggregates in yeast
  6. New type om complex dynamics observed in both model and experiment
  7. Preface to Focus Issue of journal Chaos
  8. Recollections of early chaos research
  9. A new biosensor to measure intracellular Fructose 1,6-bisphosphate
  10. A simple enzyme reaction shows chaotic behavior
  11. Complexity of a peroxidase–oxidase reaction model
  12. Glycolysis oscillates in the yeast S. cerevisiae.
  13. Glycolytic oscillations and intracellular K+ concentration are strongly coupled in the yeast Saccharomyces cerevisiae
  14. Functional imaging of a model unicell: Spironucleus vortens as an anaerobic but aerotolerant flagellated protist
  15. Coupled Response of Membrane Hydration with Oscillating Metabolism in Live Cells: An Alternative Way to Modulate Structural Aspects of Biological Membranes?
  16. Delivery of proteins encapsulated in chitosan-tripolyphosphate nanoparticles to human skin melanoma cells
  17. Oscillations promote constant low entropy
  18. Effect of macromolecular crowding on the kinetics of glycolytic enzymes and the behaviour of glycolysis in yeast
  19. The dynamics of intracellular water constrains glycolytic oscillations in Saccharomyces cerevisiae
  20. Calibrated kallikrein generation in human plasma
  21. Polymeric pH nanosensor with extended measurement range bearing octaarginine as cell penetrating peptide
  22. Selection of Aptamers for Metabolite Sensing and Construction of Optical Nanosensors
  23. Tight Coupling of Metabolic Oscillations and Intracellular Water Dynamics in Saccharomyces cerevisiae
  24. Erratum to: Experimental and model study of the formation of chitosan-tripolyphosphate-siRNA nanoparticles
  25. Experimental and model study of the formation of chitosan-tripolyphosphate-siRNA nanoparticles
  26. The Yin and Yang of redox regulation
  27. An experimental study of the regulation of glycolytic oscillations in yeast
  28. A combination of dynamic light scattering and polarized resonance Raman scattering applied in the study of Arenicola Marina extracellular hemoglobin
  29. Nanoparticle embedded enzymes for improved lateral flow sensors
  30. Oscillations in glycolysis in Saccharomyces cerevisiae: The role of autocatalysis and intracellular ATPase activity
  31. Sphingomyelinase D Activity in Model Membranes: Structural Effects of in situ Generation of Ceramide-1-Phosphate
  32. Measurements of intracellularATP provide new insight into the regulation of glycolysis in the yeast Saccharomyces cerevisiae
  33. Extracellular ATP induces spikes in cytosolic free Ca2+ but not in NADPH oxidase activity in neutrophils
  34. An Aptamer‐Based Nanobiosensor for Real‐Time Measurements of ATP Dynamics
  35. Time-resolved Measurements of Intracellular ATP in the YeastSaccharomyces cerevisiaeusing a New Type of Nanobiosensor
  36. Aptamers Embedded in Polyacrylamide Nanoparticles: A Tool forin VivoMetabolite Sensing
  37. On the mechanism of oscillations in neutrophils
  38. Cell surface topology creates high Ca2+ signalling microdomains
  39. Regulation of Glycolytic Oscillations by Mitochondrial and Plasma Membrane H+-ATPases
  40. Clinical consequences of hospital variation in use of oral anticoagulant therapy after first‐time admission for atrial fibrillation
  41. The metabolic pH response in Lactococcus lactis: An integrative experimental and modelling approach
  42. Risk of Myocardial Infarction and Death Associated With the Use of Nonsteroidal Anti-Inflammatory Drugs (NSAIDs) Among Healthy Individuals: A Nationwide Cohort Study
  43. Probing Glycolytic and Membrane Potential Oscillations in Saccharomyces cerevisiae
  44. Horseradish peroxidase embedded in polyacrylamide nanoparticles enables optical detection of reactive oxygen species
  45. On‐line measurements of oscillating mitochondrial membrane potential in glucose‐fermenting Saccharomyces cerevisiae
  46. Single cell studies and simulation of cell–cell interactions using oscillating glycolysis in yeast cells
  47. On‐line monitoring of CO2 production in Lactococcus lactis during physiological pH decrease using membrane inlet mass spectrometry with dynamic pH calibration
  48. Human myeloperoxidase catalyzes an oscillating peroxidase–oxidase reaction
  49. Sustained glycolytic oscillations – no need for cyanide
  50. Sustained glycolytic oscillations ? no need for cyanide
  51. On the encoding and decoding of calcium signals in hepatocytes
  52. Prediction Analysis for Measles Epidemics
  53. Concerted Simulations Reveal How Peroxidase Compound III Formation Results in Cellular Oscillations
  54. Mechanism of protection of peroxidase activity by oscillatory dynamics
  55. Mechanism of melatonin-induced oscillations in the peroxidase–oxidase reaction
  56. A Model of the Oscillatory Metabolism of Activated Neutrophils
  57. Secondary quasiperiodicity in the peroxidase–oxidase reaction
  58. Mitochondria regulate the amplitude of simple and complex calcium oscillations
  59. Oscillatory dynamics protect enzymes and possibly cells against toxic substances
  60. Melatonin Activates the Peroxidase–Oxidase Reaction and Promotes Oscillations
  61. Nonlinear Dynamics of the Peroxidase−Oxidase Reaction. II. Compatibility of an Extended Model with Previously Reported Model-Data Correspondences
  62. Switching from Simple to Complex Oscillations in Calcium Signaling
  63. On the role of methylene blue in the oscillating peroxidase–oxidase reaction
  64. Further studies of the effect of magnetic fields on the oscillating peroxidase–oxidase reaction
  65. Effect of Magnetic Fields on an Oscillating Enzyme Reaction
  66. Oscillations in peroxidase-catalyzed reactions and their potential function in vivo
  67. The Role of Naturally Occurring Phenols in Inducing Oscillations in the Peroxidase−Oxidase Reaction
  68. Routes to Chaos in the Peroxidase−Oxidase Reaction. 2. The Fat Torus Scenario
  69. Oscillations and Complex Dynamics in the Peroxidase−Oxidase Reaction Induced by Naturally Occurring Aromatic Substrates
  70. Book reviews
  71. Kinetic studies of the oscillatory dynamics in the peroxidase-oxidase reaction catalyzed by four different peroxidases
  72. Oscillations in the peroxidase-oxidase reaction: a comparison of different peroxidases
  73. Mixed-mode oscillations and homoclinic chaos in an enzyme reaction
  74. Period-doubling bifurcations and chaos in a detailed model of the peroxidase-oxidase reaction
  75. Nonlinear forecasting of non-uniform chaotic attractors in an enzyme reaction
  76. The case for chaos in childhood epidemics. II. Predicting historical epidemics from mathematical models
  77. Nonlinear analyses of periodic and chaotic time series from the peroxidase-oxidase reaction
  78. Period-doubling bifurcations and chaos in an enzyme reaction
  79. The cell division cycle: a physiologically plausible dynamic model can exhibit chaotic solutions
  80. Exploring Nature’s Roulette Wheel: Chaos in Biological Systems
  81. Chaos Versus Noisy Periodicity: Alternative Hypotheses for Childhood Epidemics
  82. Experimental evidence for the coexistence of oscillatory and steady states in the peroxidase-oxidase reaction
  83. Changing criteria for imposing order
  84. Oscillations and chaos in epidemics: A nonlinear dynamic study of six childhood diseases in Copenhagen, Denmark
  85. Poliomyelitis epidemics in Denmark over the period 1928–1958 were chaotic
  86. Chaos
  87. Chaos in Biological Systems
  88. Low Dimensional Strange Attractors in Epidemics of Childhood Diseases in Copenhagen, Denmark
  89. Effects of Periodic and Stochastic Perturbations on Oscillations and Chaos in a Model of the Peroxidase-Oxidase Reaction
  90. Chaos in biological systems
  91. Electron Transfer Reactions Involving Plastoquinone in Stacked and Unstacked Thylakoids
  92. Transient and Steady-State Kinetics of the Reaction Between Cytochrome c and the Photosystem I Reaction Centre in Cyanobacteria
  93. An enzyme reaction with a strange attractor
  94. Transient kinetics of the electron transfer between P-700, plastocyanin and cytochrome f in chloroplasts suspended in fluid media at sub-zero temperatures
  95. Transient kinetics of the reaction between cytochrome c-552 or plastocyanin and P-700 in subchloroplast particles
  96. Origin of the slow component of the electrochromic shift:
  97. Flash‐induced redox changes of P700 and plastocyanin in chloroplasts suspended in fluid media at sub‐zero temperatures
  98. A flash spectroscopic study of the kinetics of the electrochromic shift, proton release and the redox behaviour of cytochromes f and b‐563 during cyclic electron flow
  99. The Effect of Some Inhibitors of Photosynthetic Electron Transport on the Kinetics of Redox Changes of the Reaction Centre Chlorophyll of Photosystem I (P700) and of Cytochrome f at Sub-Zero Temperatures
  100. Studies of the Chaotic Behaviour in the Peroxidase-Oxidase Reaction
  101. Proton Transport Across the Thylakoid Membrane at Subzero Temperatures
  102. The effect of intrathylakoid pH* on the rate of chloroplast electron transport reactions at subzero temperatures
  103. Light‐Induced Proton Transport by Chloroplasts Suspended in Fluid Media at Sub‐Zero Temperatures: Kinetics and Stoichiometry
  104. BISTABILITY, OSCILLATION, AND CHAOS IN AN ENZYME REACTION
  105. Light-Induced Protein Uptake in Chloroplasts Suspended in Fluid Media at Subzero Temperatures
  106. The oscillating peroxidase-oxidase reaction in an open system Analysis of the reaction mechanism
  107. Oscillatory kinetics of the peroxidase-oxidase reaction in an open system. Experimental and theoretical studies
  108. Chaos in an enzyme reaction
  109. Dynamic Instabilities Within Living Neutrophils
  110. No music without melody: How to understand biochemical systems by understanding their dynamics
  111. Routes to chaos in the peroxidase-oxidase reaction