How many pounds is 152.6 cubic inches? - Cats

For 5-foot-tall units: A 32 refrigerator or freezer weighs about 150 pounds and takes up 38 cubic feet. A 32-inch refrigerator or freezer weighs about 200 pounds and takes up 44 cubic feet.

You can convert pipe size to gallons per minute of flow by calculating the cross-sectional area of the pipe and making some reasonable assumptions about pipe volume and the rate of flow. Pipe sizing is measured by the internal diameter of the pipe, not the overall outside diameter. Once determined, the overall volume can be calculated. Pipe flow is described in gallons per minute. Shorter lengths of pipe will have a greater flow than a longer length of the same diameter. This is caused by internal resistance of the pipe itself. By the same reasoning a larger diameter pipe will have a greater flow or GPM than a smaller pipe at the same pressure or flow rate. Pressure is described as pounds per square inch. The square-inch measurement is determined by the area of the pipe. The pounds are the amount of force that is placed on the liquid to push it through the enclosed space.With that background, you can estimate the flow based on the pipe size.
Find the cross-section area of the pipe. Area is equal to pi times the radius squared or a = 3.14 x r2. A two-inch diameter pipe would have a cross-section area of 3.14 x 12 or 3.14 square inches.
Understand that water has a certain pressure associated with the height of that water. One pound of water pressure, or 1 PSI, is equal to 2.31 feet of elevation in height. In other words, a 1-inch column or pipe of water that is 2.31 feet high will have a pressure of 1 PSI. The overall height -- not volume -- of the pipe corresponds to the pressure. A 6-inch diameter pipe that is 2.31 feet high will only have 1 PSI.
Find the volume of the 2-inch diameter pipe in Step 1 that has a length of 10 feet. Ten feet is equal to 120 inches. Multiply 3.14 square inches, the cross sectional area, times the length. The volume of the pipe is equal to 376.8 cubic inches of volume.
Convert cubic inches into cubic feet. One cubic foot equals 1,728 cubic inches. Divide 376.8 cubic inches by 1,728 cubic inches per cubic foot and the answer is .218 cubic feet. This means that the 2-inch diameter pipe that is 10 feet long has an internal volume of .218 cubic feet.
Calculate the amount of water that can be contained in the section of pipe at any given time. One cubic foot of water is equal to 7.48 gallons. Multiply 7.48 gallons by .218 cubic feet and the amount of water in the pipe is equal to 1.63 gallons.
Find the GPM if the flow of water is one foot per second. Multiply the one-foot per second flow by 60 seconds per minute and the flow is now 60 feet per minute. In other words the water will flow through the 10-foot pipe six full volumes for every minute. Since the piping contains 1.63 gallons per 10 feet of pipe, multiply 1.63 by six and the final GPM is equal to 9.78 GPM of water flow from the 2-inch diameter pipe.

try this link out. How many pounds is 330 cubic inches Google Search

Ford was always the most conservative of the major automakers, holding onto older designs far longer than GM or Chrysler. But market forces pushed Ford to develop new designs in the 1950s. The company had designed the Y-block for a 1953 introduction, but a shortage of nickel due to Korean war needs prevented the company from manufacturing the engine in sufficient quantities.
Ford introduced the first of the Y-block engines in 1954 on Ford cars and trucks. The engine displaced 239 cubic inches and made 139 horsepower and 193 pound-feet of torque. This represented a 25% improvement over the standard flathead from the previous year. Ford customers were enthusiastic about the new engine. Mercury customers received an uprated 256 cubic inch Y-block rated at 161 horsepower and 238 pound-feet of torque.
For 1955, Ford increased the displacement and made engines at both 272 and 292 cubic inches. The 272 made 162 horsepower and 258 pound-feet of torque. All basic Ford products received this engine. The 292 engine gave Thunderbird and Mercury drivers 193 horsepower and 280 pound-feet. With this engine, the 1955 Thunderbird rocketed from zero to sixty in just 9.4 seconds.

The difference in the up and down force is 0.069 pounds. Therefore each cubic foot of helium could lift 0.069 pounds. In order to lift 100 pounds (which would include the weight of your load, the balloon, and the helium) you would need 1449 cubic feet of helium

Pound is a unit of weight (or mass). Cubic meter and cubic feet are units of volume. There is no direct conversion.

Consider a cubic meter of lead and a cubic meter of feathers. Which would you rather carry?

The typical weight of 1 cubic foot of gravel that is 1/4 inch to 2 inches in size is 105 pounds when dry, and 125 pounds when wet.

Dry: 31.5 tons
Wet: 37.5 tons

72 x 29 x 24 = 50,112 cubic inches / 1728* = 29 cubic feet. There are 7.48 gallons per cubic foot, so the tank is actually 216.92 gallons, assuming the dimensions given are inside measurements. I hope you have a strong stand and floor because the water alone weighs 1735.36 pounds (8 pounds per gallon).

*12 x 12 x 12 = 1728 (cubic inches to cubic feet conversion)

A cubic foot is a unit of volume. A pound can be a unit od mass (weight) or a currency. Either way a volume cannot be converted into a mass nor a currency.
If you are doing homework read carefully the question to figure out what substance they are talking about.
Once you know the substance look up its density or specific gravity and do the calculation
mass (in pouunds) =density (in pounds per cubic foot) * volume (in cubic feet)

As you see, if you know the density (specific gravity) in pounds per cubic foot, you can calculate the mass of any volume of that substance (in cubic feet).

And please, never try to convert a volume into a mass.

(1/3) x pi x radius2 x height x density = pounds

where ::


radius = radius of base in inches

density = pounds per cubic inch

height = height in inches

(or you could use feet, meters, cm, mm for radius & height and use kg for density or wahtever units you wish as long as the units are consistent)

Charlie