assuming that the pipes are all the same length, then you can work it out as follows:
The pipes are cylindrical, and the volume of a cylinder is equal to pi multiplied by the square of it's radius multiplied by the length of the pipe - or:
v = πr2h
we can compare the two then by saying the volume of our two smaller pipes is:
v = πr12h + πr22h
r1 = 3 and r2 = 4, therefore
v = π32h + π42h
v = π9h + π16h
v = π25h
and then we can say that the volume of our biggest pipe is:
v = πr2h
r = 5, therefore
v = π52h
v = π25h
therefore, the two small pipes carry the same amount as the large pipe
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To start, we will find the cross sectional area of the pipes. Pipe with radius of 2 inches Cross sectional area = PI x radius2 = 12.56 inches2 Pipe with radius of 3 inches Cross sectional area = PI x radius2 = 28.26 inches2 Pipe with radius of 5 inches Cross sectional area = PI x radius2 = 78.5 inches2 As the cross sectional area of the pipe with a radius of 5 inches (78.5 inches2) is greater than the sum of the cross sectional areas of the pipes with radii of 2 inches and 3 inches (40.82 inches2), it can be concluded that the pipe with a radius of 5 inches will be able to carry the most water. (Assuming that all three pipes are the same length).
Can not be done without the 'Given' radius and height.
Because lead is very durable and resists corrosion and has a smooth inner surface and can with stand higher pressures then other materials of the time as lead has various wall thicknesses depending on the actual working pressures Lead was used for water pipes because it is very durable and resists corrosion. Lead also has a very smooth surface, and is available in various thicknesses; allowing for the tolerance of higher water pressures than other material options.
503 billion a year
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Usually dissolved calcium is the cause of scaling in pipes that carry water.
To start, we will find the cross sectional area of the pipes. Pipe with radius of 2 inches Cross sectional area = PI x radius2 = 12.56 inches2 Pipe with radius of 3 inches Cross sectional area = PI x radius2 = 28.26 inches2 Pipe with radius of 5 inches Cross sectional area = PI x radius2 = 78.5 inches2 As the cross sectional area of the pipe with a radius of 5 inches (78.5 inches2) is greater than the sum of the cross sectional areas of the pipes with radii of 2 inches and 3 inches (40.82 inches2), it can be concluded that the pipe with a radius of 5 inches will be able to carry the most water. (Assuming that all three pipes are the same length).
Heat speeds up chemical reactions. As corrosion is a chemical reaction, copper pipes at a higher temperature will corrode faster
Pipes and buckets.
To prevent using as potable water.
Plumbing
The term "waterpipe" is usually used when talking plumbing. It is a term that refers to a pipe that supplies fresh water to a water heater, water softener, faucet, etc. The term can also be applied to the large pipes that carry fresh water throughout a city underground. Pipes can be steel or copper. The term "waterpipe" is never used to refer to the pipes in a house that carry waste water. These would be sewer pipes.
Soil pipes and waste pipes differ in their purpose and the type of waste they handle. A soil pipe is designed to carry human waste and toilet paper from toilets to the sewer system or septic tank. A waste pipe, on the other hand, is designed to carry other types of waste, such as water from sinks, showers, and washing machines. Waste pipes can also carry food waste and other debris from garbage disposals. Additionally, waste pipes are typically smaller in diameter than soil pipes.
We still use aqueducts. Aqueducts are water pipes. We use water pipes to carry water to a place such as a farm field, a house, a swimming pool. The ancient peoples used aqueducts for he same purposes.
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