Calibration factor, CF =
cps/dps
cps - count per second
dps -disintegration per minute
The constant factor that each value in an exponential decay pattern is multiplied by the next value. The decay factor is the base in an exponential decay equation. for example, in the equation A= 64(0.5^n), where A is he area of a ballot and the n is the number of cuts, the decay factor is 0.5.
equation
That depends on the equation; you need to give some examples of what you want factored. There are four steps to solving an equation. Should any other factors be accounted for when solving an equation? Should any factors be accounted for when explaining how to solve an equation?
What is integrating factor of linear differential equation? Ans: assume y = y(x) in the given linear ODE. Then, by an integrating factor of this ODE, we mean a function g(x) such that upon multiplying the ODE by g(x), it is transformed into an exact differential of the nform d[f(x)] = 0.
It means that one factor is greater than (>) or less than (<) some other factor.
No, different objectives have different magnifications and optical properties, which can affect the calibration factor. It is important to calibrate the microscope for each objective to ensure accurate measurements of microorganism size.
To calculate the calibration factors for converting pixels to SI units, you first need to determine the physical dimensions of a known object in the image and its corresponding pixel dimensions. Measure the number of pixels that span the known object's width or height, and then divide the actual size (in meters) by the pixel measurement to obtain the calibration factor (in meters per pixel). This factor can then be applied to convert other pixel measurements to SI units by multiplying the pixel count by the calibration factor.
If it does not factor properly then you cannot factor it.
Two divisions of the stage micrometer is equal to 20 micrometers. 20 micrometers/13 = 1.54micrometers You multiply this by 16 to find the diameter of the cell. 1.54 x 16 = 24.62 micrometers
Temperature
it is because the objectives have different values of magnification.....
It is used to solve quadratic equations that cannot be factored. Usually you would factor a quadratic equation, identify the critical values and solve, but when you cannot factor you utilize the quadratic equation.
How you solve an equation that doesn't factor is to plug a quadratic equation's format; ax2+bx+c into the quadratic formula which is x=-b+square root to (b2-4ac)/2a.
Because that is how a linear equation is defined!
An integrating factor is called so because it is a function that, when multiplied by a differential equation, transforms it into an exact equation that can be solved more easily. This method is particularly useful for linear first-order ordinary differential equations, where applying the integrating factor allows the equation to be integrated directly. Essentially, the integrating factor "integrates" the equation by making it solvable through standard integration techniques.
The coefficient in an equation is the number that is multiplied by a variable. It is the numerical factor that appears in front of the variable.
There is no equation. An equation is true, whereas the statement ( 5 + 7 = -12 ) is false.