Add up the relative uncertainties of both constant and of the divider
To find the temperature when pressure is constant, you can use the ideal gas law equation, PV = nRT, where P is pressure, V is volume, n is the number of moles of gas, R is the gas constant, and T is temperature in Kelvin. You can rearrange the equation to solve for T: T = PV / nR.
Density is mass divided by volume. If we assume the mass of the iron and the cotton is the same, you will find that the iron will occupy less space (less volume) than that of the cotton. The value of a mass divided by a small volume is higher than the value of the same mass divided by a larger volume. If we assume the volume of both the iron and the cotton is the same, you will also find that the mass of the iron will be higher than the mass of the cotton. The value of a large mass divided by a volume is larger than the value of a small mass divided by the same volume. In both assumptions, the value of mass divided by volume for the iron is higher than the value of mass divided by volume for the cotton. Since density is mass divided by volume, the density of iron is therefore higher than the density of cotton.
The formula to find lattice mismatch is given by: Lattice mismatch = (d2 - d1) / d1 * 100% where d1 and d2 are the lattice parameters of the two materials being compared. The percentage value helps quantify the difference in the spacing of the crystal lattice planes.
The enzyme inhibition constant, also known as the inhibition constant (Ki), is typically determined experimentally by measuring the rate of enzyme activity in the presence of various inhibitor concentrations. By plotting the data and fitting it to an appropriate equation (e.g., Michaelis-Menten or Lineweaver-Burk plot), the Ki value can be calculated. The Ki value represents the concentration of inhibitor required to reduce the enzyme activity by half.
Charles found that when the temperature of a gas is increased at constant pressure, its volume increases. When the temperature of a gas is decreased at constant pressure, its volume decreases.
To find uncertainty in measurements, calculate the range of possible values around the measured value based on the precision of the measuring instrument. This range represents the uncertainty in the measurement.
To find the uncertainty in a measurement, you need to consider the precision of the measuring instrument and the smallest unit of measurement it can detect. This uncertainty is typically expressed as a range around the measured value, indicating the potential error in the measurement.
The diameter is the circumference divided by the constant, Pi (3.14).
To find the relative uncertainty in the mass of the electron, you would typically determine the absolute uncertainty in the measurement of the electron's mass and then divide it by the measured value of the electron's mass. Finally, multiplying by 100 will give you the relative uncertainty as a percentage.
0.6
The exact value of sec 4pi divided by 3 is 1/3.
3
the average is the sum of the value divided by the number of values
3 18 divided by 6 is 3.
The value of an impulse is the change in momentum. If the mass remains constant it is the mass times the change in velocity.
7565 divided by 7 = n
By Ohm's Law, resistance is voltage divided by current.