Abstract:
A method for fluorescence correlation spectroscopy in connection with studying a time-varying course, wherein molecules are exposed to energy for the purpose of exciting said molecules, wherein the subsequent emission, from said molecules, of fluorescence of a predetermined wavelength is detected, and wherein said energy is applied in pulses with a pulse frequency which at least amounts to two pulses per period of the time-varying course being studied.
Abstract:
A method for fluorescence correlation spectroscopy in connection with studying a time-varying course, wherein molecules are exposed to energy for the purpose of exciting said molecules, wherein the subsequent emission, from said molecules, of fluorescence of a predetermined wavelength is detected, and wherein said energy is applied in pulses with a pulse frequency which at least amounts to two pulses per period of the time-varying course being studied.
Abstract:
A method for fluorescence correlation spectroscopy in connection with studying a time-varying course, wherein molecules are exposed to energy for the purpose of exciting said molecules, wherein the subsequent emission, from said molecules, of fluorescence of a predetermined wavelength is detected, and wherein said energy is applied in pulses with a pulse frequency which at least amounts to two pulses per period of the time-varying course being studied.
Abstract:
The present embodiments relates to antibody binding nanofibrils obtainable by co-fibrillation of carrier proteins and carrier - Z fusion proteins at a molar ratio selected within an interval of from 1:0.20 to 1:0.90. The antibody binding nanofibrils have extremely high antibody binding capacity and can thereby be used in various applications, such as antibody purification, and detection of biomarkers in point of care or laboratory diagnosis applications.