Biology Category
Apply physics principles to biological systems — molecular forces, membrane biophysics, protein folding, biomechanics, and biophysical methods.
Welcome to the Biophysics category of this site. Here you will find clear, detailed articles covering key topics related to Biophysics.
A detailed guide to active matter biology: nonequilibrium cytoskeletal dynamics. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to amyloid fibril formation: protein aggregation biophysics. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to atomic force microscopy: imaging surfaces at nanoscale. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to biomechanics: how biological systems handle forces. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to biomolecular recognition: binding and specificity. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to biophysical methods for protein structure. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to biophysical principles of enzyme catalysis. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to biophysics of vision: photoisomerization and signal amplification. Covers key mechanisms, biological significance, and clinical relevan
A detailed guide to biopolymer networks and cytoskeletal mechanics. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to blood rheology and hemodynamics: fluid mechanics of circulation. Covers key mechanisms, biological significance, and clinical relevance
A detailed guide to cell biophysics: physical properties of living cells. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to cell shape and surface tension: physical determinants. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to cellular nanoindentation: stiffness and viscoelasticity. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to circular dichroism: probing protein secondary structure. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to cryo-electron microscopy: biomolecular structure at atomic resolution. Covers key mechanisms, biological significance, and clinical rel
A detailed guide to dielectric spectroscopy: probing cell electrical properties. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to diffusion and transport in cellular systems. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to dna biophysics: mechanics and interactions. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to dna melting: thermodynamics of strand separation. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to electroporation and electric fields: perturbing membrane permeability. Covers key mechanisms, biological significance, and clinical rel
A detailed guide to fluorescence and fret in biological research. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to folding energy landscapes: funnels and kinetic traps. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to ion channels: gatekeepers of electrical signaling. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to isothermal titration calorimetry: binding thermodynamics. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to lipid rafts and membrane microdomains: nanoscale organization. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to lipid vesicle biophysics: model membranes for research. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to mechanotransduction: how cells sense mechanical forces. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to membrane biophysics: structure and dynamics of lipid bilayers. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to membrane curvature: proteins that bend lipid bilayers. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to membrane fusion biophysics: mechanisms and mediators. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to membrane transport: channels, pumps, and carriers. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to microtubule mechanics: stiffness and dynamic instability. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to molecular dynamics simulations: simulating biomolecular motion. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to molecular forces in biology: bonds that hold life together. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to molecular motors: converting chemical energy into motion. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to nernst and goldman equations: ion balance in cells. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to neurobiophysics: electrical signaling in neurons. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to optical tweezers: manipulating single biomolecules. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to patch-clamp recording: single-channel currents revealed. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to phase separation and biomolecular condensates: liquid organelles in cells. Covers key mechanisms, biological significance, and clinical
A detailed guide to photosynthetic light harvesting: energy transfer and photophysics. Covers key mechanisms, biological significance, and clinical relevan
A detailed guide to protein folding: from linear chain to functional structure. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to protein-membrane interactions: electrostatics and insertion. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to single-molecule biophysics: observing individual molecules. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to solution nmr spectroscopy: protein dynamics and structure. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to spectroscopic methods in biophysics. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to surface plasmon resonance: label-free binding analysis. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to thermodynamics of life: energy and entropy in biology. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to x-ray crystallography of biological molecules. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to x-ray free electron lasers: ultrafast structural biology. Covers key mechanisms, biological significance, and clinical relevance.
