pips are generally cylindrical in structure of amount of heat loss through pipe is given by the formula Q= 2 pi k L(T1-T2)/ln(r2/r1) where k=conductivity of material of which pipe is made T1= temperature of inside layer pipe T2=temperature outside layer of pipe L= length of pipe r1= inner radius r2=outer radius ln=natural logrithem pi=22/7 the above condition applies for steady state flow,single layer over cylinder and neglecting conductivity convection to take conductivity convection into account term Q* must be added Q*=2 pi L{ r1 hi(Ti-T1)+r2 ho(T2-To)} hi=convective coefficient for inside layer ho=convective coefficient for outside layer Ti= temperature of inside space of pipe To=temperature of outside space of pipe for unsteady condition there is another formulaa
Static pressure is .434 X height Example 10 ft x .434 4.34 PSI to prove take 2.31 PSI x 4.34 To find FORCE to need to calculate the diameter of the piping and the height and then the weight of the water inside the pipe
Google "pressure sensitive adhesives". Or go to the library and find a book on adhesives.
To calculate the load of a hydraulic jack, you can use Pascal's principle, which states that pressure applied to a confined fluid is transmitted undiminished throughout the fluid. The load (F_load) can be determined using the formula F_load = P × A, where P is the pressure applied in pascals (Pa) and A is the area of the jack's piston (in square meters). Additionally, you can calculate the area by using the formula A = π × (d/2)², where d is the diameter of the piston. By plugging in the values for pressure and area, you can find the load the jack can support.
the basic principle on which a Venturimeter works is that by reducing the cross-sectional area of the flow passage, a pressure difference is created and by measuring this pressure difference, discharge through the pipe can be determined. formula to find actual discharge is=amount of fluid collected/time taken it works on the principle of bernoulli"s equation
look up the pole
The formula used to find force is F = m * a, where F is the force, m is the mass of the object, and a is the acceleration.
P=F/A Pressure=Force over area To get this you use P= N/M2
You can find Dynamic pressure by using bernoulli's equation. P = (density * velocity^2)/2
To find density with temperature and pressure, you can use the ideal gas law equation: density (pressure)/(gas constant x temperature). This formula relates the density of a gas to its pressure and temperature.
The formula to find pressure is given by the equation ( P = \frac{F}{A} ), where ( P ) represents pressure, ( F ) is the weight (or force) applied, and ( A ) is the area over which the force is distributed. Pressure is measured in units such as pascals (Pa) in the SI system. Essentially, pressure increases with greater force or decreases with a larger area.
it is used to find the equation of lines and it is used to find the basic formula for finding angles in triangle, orthocentre, alititudes.etc
To find the pressure in a pipe, you can use the formula: Pressure Force/Area. This means that pressure is equal to the force applied to the fluid in the pipe divided by the cross-sectional area of the pipe. By measuring the force and the area, you can calculate the pressure in the pipe.
Trace the lines from the compressor. Probably toward the firewall you will find the low pressure port made to a sliver pipe.
with the use of skilled professionals to dive the pool and pressure test the lines
The formula to find the work done by a gas in a thermodynamic process is W PV, where W represents work, P is the pressure, and V is the change in volume.
To find the depth in a hydrostatic pressure equation, you can use the formula: pressure = density of fluid x gravitational acceleration x depth of fluid. Rearrange the equation to solve for depth: depth = pressure / (density of fluid x gravitational acceleration).
To find density using pressure and temperature, you can use the ideal gas law equation: density (pressure)/(gas constant x temperature). This formula relates the pressure, temperature, and density of a gas. By plugging in the values for pressure, temperature, and the gas constant, you can calculate the density of the gas.