6 tools
Calculates the kinetic parameters of enzyme-catalyzed reactions using the Michaelis-Menten equation, enabling users to determine the maximum velocity and affinity constant for an enzyme-substrate system. Helps biochemists and students quickly analyze reaction data and understand enzymatic kinetics. Researchers, educators, and students in the field of biochemistry and related sciences use this tool to simplify complex calculations and gain deeper insights into enzymatic reactions. It aids in experimental design by providing a quick way to predict reaction outcomes based on enzyme concentration and substrate availability.
Calculates the percentage concentration of a protein within a saturated solution, providing an essential thermodynamic property for biochemical research. Users input relevant parameters to determine the solubility limit, which represents the maximum amount of protein that can dissolve at specific conditions. The tool models complex physical chemistry principles governing solute-solvent interactions and equilibrium states, allowing researchers to accurately predict stable concentrations under various environmental factors. Scientists and biochemists utilize this calculator when investigating protein stability, formulation science, or molecular biology processes. It helps determine whether a given concentration of protein is achievable in solution and provides critical data for optimizing buffer compositions.
Calculates the amount of solvent needed to resuspend oligos into a stock solution, given the desired concentration and volume. Users input the number of oligos, their molecular weight, and target final concentration, then receive the necessary solvent volume in various units (mL, µL, etc.). Helps users in the field of molecular biology, particularly researchers working with DNA and RNA samples, to accurately prepare stock solutions required for experiments and analyses.
Calculates enzyme activity based on given substrate concentration, reaction temperature, and pH levels. Helps users determine the optimal amount of enzymes needed for specific biochemical reactions by applying Michaelis-Menten kinetics principles. Researchers, students, and professionals in biochemistry, molecular biology, and related fields use this tool to ensure accurate experimental design and data interpretation. It aids in optimizing enzyme usage for maximum reaction rates, facilitating accurate scientific research and development in areas such as biotechnology and pharmaceuticals.
Calculates concentration of unknown samples using calibration curves based on known concentrations of standard solutions. Users input data points, including absorbance or response values from standard and unknown samples, then the calculator plots these points to generate a linear regression equation. This equation is used to determine the concentration of the unknown sample. Scientists, researchers, and students in chemistry and related fields use this tool for accurate measurement and analysis in experiments. It helps in validating analytical methods, ensuring data reliability, and improving precision in laboratory work.
Calculates the pH value at which a molecule carries no charge, useful for understanding protein behavior in different mediums. Researchers, students, and professionals in chemistry, biology, and biochemistry often need to determine the isoelectric point of molecules like proteins to understand their solubility, stability, and function in various environments. This tool simplifies this process by inputting molecular properties such as amino acid composition, which then outputs the precise isoelectric point.
