1000 Degrees F
"Solid Steel" would not be a pipe- it would be a rod. Weight of pipe will vary depending on the thickness of the wall of the pipe.
The density of steel varies, but if we assume it's 7.9 grams per cubic centimeter, then the weight of a 12" x 12" x 1/4" chunk can be calculated. There are 36 cubic inches in the chunk of steel (multiply the dimensions together), and there are about 16.387064 cubic centimeters in a cubic inch. That means there are about 573.54724 cubic centimeters in 36 cubic inches. At 7.9 grams per cubic centimeter, there are about 4531.023 grams of steel in 36 cubic inches of this alloy of iron. There are about 4531.023 grams or 4.53 kilograms, or about 9.989 (almost 10) pounds of steel in your twelve by twelve by one quarter piece. The answer in English units is 1 square foot of 1 inch steel weighs 40.8 pounds. take length times width in feet times the thickness in inches times 40.8 to find the weight. In answer to your question the weight would be 10.2 lbs. 1' * 1' *.250*40.8
No, there is no difference in length either way the girder stands.
"16 mm" probably refers to the diameter. The mass of a steel bar depends not only on its diameter, but also on its length.
TOR is a manufacturer's name for CTD (Cold Twisted Deformed) steel bars, also known as "rebar" and used as reinforcement in concrete. While it certainly can be ordered from the manufacturer in any lengths, most hardware suppliers carry a standard 20' length.
0.00000645in/in/deg F is the coefficient of expansion for steel. so if you had a 12" plate, that was heated up 30°f you would get "0.00000645 * 12 * 30 = 0.002322" (12" + 0.002322") would be the new length at the increased temperature.
The question cannot be answered sensibly. The weight of an object depends on its volume and volume depends on the length, breadth and height of the object. Given only the length it is impossible to give an answer. It would, for example, be impossible to distinguish between 12 inches of a steel wire and 12 inches of a steel block!
Use the coefficient of thermal expansion. This is a measure of how much a unit length of steel would expand per each unit increase in temperature. There are different kinds of steel so you may need to know its composition.
Weight per metre length= 0.559 kg
The data points of your experiment, are related to changes you made in the variables of the experiment. For example, whether brass expanded more than steel as a response to heating.Your experiment would have been to vary the temperature, and to measure the length of your specimens at each temperature you chose to perform your measurements. Your results are the data points of length, and your variable(s) are the temperature.So you have caused an increase in length by varying the temperature. This is your result. And you can show the relationship between that length change, and the temperature change.This is the explanation of the relationship between the various sets of data.[In this case, brass length, steel length, and temperature.]
The steel has a ductile material properties so that it could be elongate at a point of ultimate yield point.It is stable while before the break point
Cubic inches = pi*r^2*L wherer = radius of rod = 1/2*diameter and L = length, both measured in inches.
18 gauge stainless steel is 0.0500 inches thick.
your question is unclear We can make some assumptions though. If you talk about a piece of wood, then the scale is most likely Inches. That would mean that you have a unspecified length of wood that is 6 inches wide and 2 inches thick. If however talking about steel, then the measurement is probably in Centimeters. An unspecified length of steel/iron that is 2 centimeters thick and 6 centimeters wide. This would probably be a hollow length of some material.
16 gauge standard steel has a thickness of 0.0598 inches. 16 gauge galvanized steel has a thickness of 0.0635 inches.
The initial length is 0.2 cm Initial temperature is 30 degrees C and final temperature is 60 degrees C. he difference in temperature is 30 degrees. Let "e" be the linear coefficient of expansion of the steel rod in cm per degree C (you can find this from the specifications for the particular steel), then the expansion is 0.2 x e x 30 cm To find the total new length we have to add the original length which is 0.2 cm Hence new length is 0.2 + (0.2 x e x 30) cm And that is (0.2) x (1 + e x 30) cm
This means the force in 1,000 pounds per square inch to elongate steel beyond it's yield. The point where it will be permanently be elongated and not return to it's original dimension.