Range = Maximum value - Minimum value
The range is the maximum value in a given data minus its minimum value
Heritablility values range from 0-1 so the maximum value of heritability would be 1.
Zero is the smallest digit. However, zero is not a number. It is a place holder. So, that is not the answer to your question. The answer depends on the size and manufacturer of the caliper. As the size of the caliper increases, so will the size of its smallest accurate measurement. Most 6-inch calipers can accurately measure down to 0.001 inch or 0.0254 mm.
A minimum refers to the smallest possible value or quantity in a set or range, while a maximum refers to the largest possible value or quantity in a set or range. So, a minimum is less or smaller than a maximum.
LC FOR VERNIER CALIPER-0.1mm LC FOR MICROMETER -0.01 mm L.C- NO OF SMALLEST DIVISION ON MAIN SCALE ------------------------------------------------------- TOTAL NO OF DIVISION ON VERNIER SCALE
Least Count [L.C]:-Least count is minimuim acuurate value meauserd by instrument.Least Count of Vernier Callipers:-The minimum value measured is 0.1mm but nowa days [l.c] is of 0.5mm.'
The least value which can be measured from any measuring instrument or device is called its least count. Generally the least count of a vernier caliper is 0.02mm.You can get a least count of 0.01mm in Digital vernier caliper.
To use a Vernier caliper, first close the jaws and check that the zero on the Vernier scale aligns with the main scale. Next, open the jaws and place the object you want to measure between them. Read the measurement where the lines on the Vernier scale align with the main scale.
we use it for measuring absolute value of any objects like hallow tubes and diameter of copper wires etc,.
Least count of vernier caliper= 1 MSD - 1 VSD. Main scale usually would have 1 mm as the minimum division. Such 9 divisions, ie 9 mm would be divided into ten equal parts in the vernier. So VSD = 0.9 mm Hence the least count = 1 - 0.9 = 0.1 mm If the same is to be given in centimetre, then it will be 0.01 cm.
To obtain the main scale reading on a vernier caliper, you would read the measurement value aligned with the zero mark on the main scale.
Range = Maximum value - Minimum value
To measure using a vernier caliper, close the jaws around the object being measured and read the main scale value. Then, align the vernier scale with the nearest main scale division and note the value where the lines on the vernier scale match up with the main scale. Add the main scale and vernier scale readings to get the final measurement.
The range is the maximum value in a given data minus its minimum value
A Vernier allows a precise reading of some value. In the figure to the right, the Vernier moves up and down to measure a position on the Scale. This could be part of a barometer which reads atmospheric pressure. The "pointer" is the line on the vernier labelled "0". Thus the measured position is almost exactly 756 in whatever units the scale is calibrated in. If you look closely you will see that the distance between the divisions on the vernier are not the same as the divisions on the scale. The 0 line on the vernier lines up at 756 on the scale, but the 10 line on the vernier lines up at 765 on the scale. Thus the distance between the divisions on the vernier are 90% of the distance between the divisions on the scale. If we do another reading with the vernier at a different position, the pointer, the line marked 0, may not line up exactly with one of the lines on the scale. Here the "pointer" lines up at approximately 756.5 on the scale. If you look you will see that only one line on the vernier lines up exactly with one of the lines on the scale, the 5 line. This means that our first guess was correct: the reading is 756.5. Here is a final example, with the vernier at yet another position. The pointer points to a value that is obviously greater than 756.5 and also less than 757.0. Looking for divisions on the vernier that match a division on the scale, the 7 line matches fairly closely. So the reading is about 756.7. In fact, the 7 line on the vernier appears to be a little bit above the corresponding line on the scale. The 8 line on the vernier is clearly somewhat below the corresponding line of the scale. So with sharp eyes one might report this reading as 756.73 ± 0.02. This "reading error" of ± 0.02 is probably the correct error of precision to specify for all measurements done with this apparatus. Now we shall use a simulation of a Vernier Caliper. A caliper measures a length, and in the following figure we show a caliper being used to measure the length of an Object. The Object will be placed between the "jaws" of the caliper. The Object is almost exactly 75 mm (2.95 in) long. In the above photograph, you can see that on the top of the caliper are two "prongs" which can be used to measure an interior dimension. There is also a piece of metal sticking out from the right side of the caliper, which is a depth gauge. Calipers commonly use a vernier scale. In the simulation below, you may "grab" the jaw of the caliper with the left button of the mouse and move it to some position. When you click on the Show button the distance between the jaws will be shown. Note that there is a small difference between the simulation and a real caliper: in the simulation the distance between the jaws is always an even multiple of a tenth of a millimeter. It does not allow readings between these values, for which we would have to estimate the value. The Java applet to simulate the vernier caliper was written by Fu-Kwan Hwang, Department of Physics, National Taiwan Normal Univ., and is used by permission. See related link for the applet.
I only know what mean is, so mean is the same thing to the average. * * * * * Range is the difference between the maximum value and the minimum value. Range = Maximum - Minimum.