Measure the mass (in kilograms) and length (in metres) of the strip. Divide the first by the other.
Copper has a CTE of 16.6 parts per million/degree C (16.6E-6/C)
Weight of pipe per Meter in Kg for MS Pipes = 3.14 * (Outer diameter of pipe in Mtr. - wall thickness in Mtr. ) * Wall Thickness in Mtr. * 7850
In order to calculate the internal capacity of a pipe use the formula pi x internal radius x internal radius x length of pipe where pi = 3. 142. This is the volume of a cylinder; pipe capacity is usually amount of flow per unit of time under given conditions of internal roughness, and viscosity of the flowing fluid with a given pressure loss per length unit
The way I have done this with things such as heaters, window defrosters, etc. is to model the heating element as a resistor (or a set of resistors in different parallel and series combinations, based on the layout). The wire used in the electric blanket (the heating elements) should have a specific resistance per length; calculate the length of the different sections, and create a lumped resistive element of this total length.
how to calculate the vapour absorption mechine efficiency and per TR steam consumption
You convert everything to a common unit, for example meters, multiply length x width x height to get the volume, then multiply this volume by the density of copper, which you can easily look up. - Actually this will give you the mass, not the weight. If you really want the weight, you can multiply the mass by Earth's gravity - about 9.8. Alternately, you can weigh a sample.
(rho) or resistivity of a "wire" is calculated using this formule:rho = Resistance x Area / length of materialthe resistivity of copper is 1.7 x 10 -8 ohm/mResistivity is measured in ohm metres, NOT ohms per metre!
The number of atoms in a 1cm length of copper wire can be calculated using Avogadro's number, which is approximately 6.022 x 10^23 atoms per mole. The molar mass of copper is around 63.55 g/mol, so you would find the mass of copper in 1 cm of wire and then convert that to moles to determine the number of atoms.
The coefficient of linear expansion for copper is around 16.5 x 10^-6 per degree Celsius. This means that for every degree Celsius increase in temperature, a one-meter length of copper pipe will expand by 16.5 micrometers in length.
200*75*7
It is not possible to calculate weight just from length, width and/or height. (These can give you volume and area, but not weight). For weight, you need to know "how heavy it is per this amount of stuff" is - e.g "3 grams per square cm" or "6 tonnes per inch".
The mass of a single copper atom is approximately 1.055 x 10^-25 kilograms. This value is determined by the atomic mass of copper (63.55 grams per mole) and Avogadro's number.
The cost of copper per linear meter can vary depending on market conditions and the type of copper being purchased. As of current market data, the price of copper can range between $5 to $10 per linear meter. It's advisable to check with local suppliers or online sources for the most up-to-date pricing information.
Calculate the volume = length * breadth * thickness, where these are measured in centimetres. Multiply by the density = 8.96 grams per cubic centimetre to obtain the mass in grams. Divide by 1000 to get the mass in kilograms. Finally, multiply by 9.8, the acceleration due to gravity. The answer is the weight, in Newtons.
500mcm 37 strand copper wire = 1.544lbs/ft.
$ 4.34 per pound of copper. according to the world copper price market.
To calculate the usage of copper sulphate in liters per hour, we first need to determine the total amount of copper sulphate consumed per hour. 140 tons of ore per hour x 885 gm of copper sulphate per ton = 123,900 gm of copper sulphate per hour Next, convert grams to liters: 1 liter of 5% copper sulphate solution weighs approximately 1 kg or 1000 grams. Therefore, 123,900 gm = 123.9 liters per hour of the 5% copper sulphate solution.