This was on a previous question..its not my answer but it's right!!
"Basically you take all the values in this table ([S]), divide 1 by them (i.e. 1/0.10, 1/0.192), and make a new table with those values. This table should give you a linear slope, which you can use to calculate earlier values. 1/Vmax is going to be the Y intercept, or the value at which (1/[S]) = 0. So you use the linear slope to determine what 1/V is when 1/S=0, then take that value of 1/V and reverse it by dividing it by 1 to get (1/(1/V) when 1/S = 0). This will give you your Vmax
To calculate Vmax from a Lineweaver-Burk plot, you can find the reciprocal of the y-intercept, which represents 1/Vmax. By taking the reciprocal of this value, you can determine the actual Vmax value.
All AC voltages and currents are quoted as root-mean-square (rms) values where, for a sinusoidal waveform, the rms value is 0.707 Vmax or 0.707 Imax.From this, you can determine the value of the amplitude Vmax or Imax:Vmax = Vrms/0.707 or Imax = Irms/0.707Once you know the value of the amplitude (Vmax or Imax), simply double it to determine the peak-to-peak value.
An uncompetitive inhibitor affects both the Km and Vmax values in enzyme kinetics by decreasing the apparent Km value and reducing the Vmax value.
To calculate Vmax and Km for enzyme activity data, you can use the Michaelis-Menten equation. Vmax is the maximum reaction rate of the enzyme, and Km is the substrate concentration at which the reaction rate is half of Vmax. By plotting a Lineweaver-Burk plot or a double reciprocal plot of the enzyme activity data, you can determine Vmax and Km by analyzing the slope and intercept of the line.
Uncompetitive inhibition affects both the Km and Vmax values in enzyme kinetics by decreasing the apparent Km value without changing the Vmax value.
The Vmax would be the highest rate, when the enzyme is fully saturated. So as you increase substrate the Vmax will increase to a certain point (Vmax). Beyond that point, no matter how much substrate you add the Vmax will not increase.
The Michaelis-Menten constant (Km) is calculated by determining the substrate concentration at half of the maximum reaction rate (Vmax). This value can be obtained by plotting reaction rates against substrate concentrations and identifying the point where the reaction rate is half of Vmax. Km represents the affinity of the enzyme for its substrate.
If the enzyme concentration is increased by a factor of four, the Km value would remain the same because it is a property of the enzyme-substrate complex. The Vmax value would increase proportionally to the increase in enzyme concentration, also by a factor of four, due to more enzyme-substrate complexes being formed.
Km= 1/2 (Vmax). Remember Km is a substrate concentration not a rate.
The equation for finding the amplitude of a wave is A = (1/2)(Vmax - Vmin), where A is the amplitude, Vmax is the maximum value of the wave, and Vmin is the minimum value of the wave. The amplitude represents the maximum displacement of the wave from its equilibrium position.
Competitive inhibition decreases the value of Vmax in enzyme kinetics by reducing the rate at which the enzyme can catalyze a reaction. This is because the inhibitor competes with the substrate for binding to the active site of the enzyme, slowing down the overall reaction rate.
The vmax of lactate dehydrogenase (LDH) is the maximum velocity at which the enzyme can catalyze the conversion of lactate to pyruvate in a given concentration of substrate. This value represents the rate of the enzyme-catalyzed reaction at saturated substrate concentrations.