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Added 2008-12-07 22:25:13
Added By stevinium
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Tags:fall  feet  head  horsepower  impulse  line  mill  minute  power  powered  problem  quantity  reaction  stream  water  wheel  wheels 
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Create Energy With Air and Water



Last Build Date: Fri, 12 Dec 2008 21:57:26 +0000

 



The Reaction Turbinesupermaxshuttle2677517979_3cb6d08697_m2539162919_164e7429e7_m

Fri, 12 Dec 2008 21:57:26 +0000


The reaction turbine is best adapted to low heads, with a large supply of water. It is not advisable, under ordinary circumstances, to use it under heads exceeding 100 feet, as its speed is then excessive. It may be used under falls as low as two feet. Five thousand cubic feet of water a minute would give approximately 14 [...]



Other Types of Impulse Wheelssupermaxshuttle2539162919_164e7429e7_m

Wed, 10 Dec 2008 22:52:19 +0000


In recent years more efficient forms of the old-fashioned overshoot, pitch-back breast, and undershoot wheels have been developed, by substituting steel or other metal for wood, and altering the shape of the buckets to make better use of the power of falling water. In some forms of overshoot wheels, an efficiency of over 90 per cent is claimed by manufacturers; [...]



The Pipe Line For an Impulse Wheelsupermaxshuttlewater wheelWorking Water Powered Mill

Wed, 10 Dec 2008 01:50:39 +0000


The principal items of cost in installing an impulse wheel are in connection with the pipe line, and the governor. In small heads, that is, under 100 feet, the expense of pipe line is low. Frequently, however, the governor will cost more than the water motor itself, although cheaper, yet efficient, makes are now being put on the market to [...]



The Impulse, or Tangential Water WheelsupermaxshuttleWorking Water Powered Mill

Thu, 27 Nov 2008 09:19:25 +0000


The modern impulse, or tangential wheel (so called because the driving stream of water strikes the wheel at a tangent) is best adapted to situations where the amount of water is limited, and the head is large. Thus, a mountain brook supplying only seven cubic feet of water a minute–a stream less than two-and-a-half inches deep flowing over a weir [...]



The Water Wheel and How To Install Itsupermaxshuttle2410326835_833220afc7_m1

Wed, 26 Nov 2008 08:13:37 +0000


In general, there are two types of water wheels, the _impulse_ wheel and the _reaction_ wheel. Both are called turbines, although the name belongs, more properly, to the reaction wheel alone. Impulse wheels derive their power from the _momentum_ of falling water. Reaction wheels derive their power from the _momentum and pressure_ of falling water. The old-fashioned _undershot_, _overshot_, and _breast_ [...]



Quantity of WatersupermaxshuttleWorking Water Powered Mill

Tue, 25 Nov 2008 06:09:27 +0000


Let us take still another problem which the prospector may be called on to solve: _A man finds that he can conveniently get a fall of 27 feet. He desires 20 actual horsepower. What quantity of water will be necessary, and what capacity wheel?_ Twenty actual horsepower will be 20 x 4/3 = 26.67 theoretical horsepower. Formula: 33,000 x Hp. required (D) [...]



What Head is Requiredsupermaxshuttlewater wheel

Mon, 24 Nov 2008 09:54:11 +0000


Let us attack the problem of water-power in another way. _A farmer wishes to install a water wheel that will deliver 10 horsepower on the shaft, and he finds his stream delivers 400 cubic feet of water a minute. How many feet fall is required?_ Formula: 33,000 x horsepower required (C) Head in feet = —————————— Cu. Ft. per minute x [...]



The Size of the Water Wheelsupermaxshuttlewater powered farmWorking Water Powered Mill

Sun, 23 Nov 2008 10:48:47 +0000


Water wheels are not rated by horsepower by manufacturers, because the same wheel might develop one horsepower or one hundred horsepower, or even a thousand horsepower, according to the conditions under which it is used. With a given supply of water, the head, in feet, determines the size of wheel necessary. The farther a stream of water falls, the smaller [...]



Figuring Out a Stream’s Horsepowersupermaxshuttlewater wheel

Sat, 22 Nov 2008 11:00:05 +0000


By one of the above simple methods, the problem of _Quantity_ can easily be determined. The next problem is to determine what _Head_ can be obtained. _Head_ is the distance in feet the water may be made to fall, from the Source of Supply, to the water wheel itself. The power of water is directly proportional to _head_, just [...]



Another Method of Measuring a StreamsupermaxshuttleEnergy sources from small creeks

Fri, 21 Nov 2008 10:33:17 +0000


Weirs are for use in small streams. For larger streams, where the construction of a weir would be difficult, the U. S. Geological Survey engineers recommend the following simple method: Choose a place where the channel is straight for 100 or 200 feet, and has a nearly constant depth and width; lay off on the bank a line 50 or [...]