Part, §

  1 Int    |         was having set up to pump water from a coal pit. It was
  2 Int    |         to the problem of raising water from mines -- that is to
  3 Int    |          injecting the condensing water into the cylinder is that
  4 Int    |      cylinder wall, through which water rushed in from a water jacket
  5 Int    |      which water rushed in from a water jacket formed by a lead
  6 Int    |          generated by the boiling water in proportion to the quantity
  7 Int    |     proportion to the quantity of water, whereas, as he asserts,
  8 Int    |          thin membrane or coat of water, very much like a bladder.~ ~
  9 Int    |        would effectually draw the water out of all mines and collyeries
 10 Pre,  1|      study for many years to draw water by means of fire. When fourteen
 11 Pre,  1|          fire-machine for drawing water from the mines. He was induced
 12 Pre,  1|        the heavy costs of lifting water by means of horses which
 13 Pre,  2|           strange event. The cold water, which was allowed to flow
 14 Pre,  2|         opened a way for the cold water, which rushed into the cylinder
 15 Pre,  2|       represent the weight of the water in the pumps, proved to
 16 Pre,  2|         the small boiler. The hot water which flowed everywhere
 17 Pre,  5|           feet 1 inches high. The water in the boiler stood 4 feet
 18 Pre,  5|      minute 10 English gallons of water, and the mine was 51 yards
 19 Pre,  7|          any other way of drawing water from a mine that by means
 20 Pre, 10|          generated by the boiling water in proportion to the quantities
 21 Pre, 10|   proportion to the quantities of water. In consequence of these
 22 Exp    |          widest part, 2/3 full of water, the steam, when boiling,
 23 Exp    |      through the spurting of cold water, which creates a vacuum,
 24 Exp    |      opened, can be seen how much water there is in the boiler,
 25 Exp    |     coming from the upper one and water from the lower one this
 26 Exp    |       there is a proper amount of water in the boiler.~ ~H. A pipe
 27 Exp    |           boiler is fed with warm water coming from the cylinder. ~ ~
 28 Exp    |         which is always kept cold water to a height of 6 inches
 29 Exp    |           which conducts the cold water to the cylinder, and which
 30 Exp    |         the cylinder, by the cold water, spurting into the cylinder
 31 Exp    |           injection-water and the water that may have been leaking
 32 Exp    |          pipe for drawing off the water from the piston when it
 33 Exp    |              W. A pipe conducting water to the puffing or snifting
 34 Exp    |     placed under the level of the water in a box of wood for the
 35 Exp    |        into the cylinder when the water spurts out of the valve
 36 Exp    |         furnishes the piston with water from the reservoir or water-basin
 37 Exp    |      constantly keeps filled with water, by means of a force-work
 38 Exp    |   force-work or pump which forces water 45 feet from the water-level
 39 Exp    |         launder which conveys the water, drawn by the machine from
 40 Exp    |      reservoir, through which the water, which the force-work draws
 41   I,  1|    Florence, who noticed that the water in his pump did not rise
 42   I,  2|    lighter than a similar inch of water, (See Tractaten om Hydrostastika
 43   I,  2|          is 14 times heavier than water. From this it follows that
 44   I,  2|    covered all over by a layer of water 34 feet high. (A pillar
 45   I,  2|           feet high. (A pillar of water 34 feet high and of the
 46   I,  9|          a stone-floor or in cold water, it will be found that it
 47   I,  9|          thin membrane or coat of water, very much like a bladder.~ ~
 48   I, 11|          useful to learn that all water contains an un-measurable
 49   I, 11|      easily be proved by allowing water to stand under the receiver
 50   I, 11|          piston, so that the cold water, which is turned on the
 51   I, 11|     opened, which causes a jet of water of one kanna or more --
 52   I, 11|          the friction.~ ~The cold water which jets against the bottom
 53   I, 12|           powerful enough to draw water out of such a depth and
 54   I, 12|      Solwerbergs mines clear from water, only the pumps will have
 55  II, 14|         depth from which it draws water is 31 fathoms or 186 feet;
 56  II, 14|      which the fire-machine draws water, is 9 inches in diameter;
 57  II, 14|           it contains 6 kannor of water.~ ~
 58  II, 15| force-work, (the force-work draws water from the basin 45 feet up
 59  II, 15|           which contains 4 kannor water, and demonstrated how the
 60  II, 15|           hour~ ~ ~ 630 tunnor of water~ ~ 24 hours [an hour~ ~ ~
 61  II, 15|         1260~ ~ ~ 15120 tunnor of water~ ~ ~ ~in 24 hours.~ ~
 62  II, 16|             16.~ ~As one kanna of water wighs 6 skålpund, 8 lod,
 63  II, 16|           draw 189000 skålpund of water in an hour. The machine
 64  II, 16|          472 skeppund, 10 lispund water~ ~
 65  II, 17|       thus containing 4 kannor of water, -- as has already been
 66  II, 17|      every foot contains 4 kannor water~ ~ ~ 12 kannor~ ~ 14 lifts~ ~ ~
 67  II, 17|              420~ ~ ~ 5040 tunnor water in 24 hours~ ~The force-work
 68  II, 17|          157 skeppund, 10 lispund water per hour.~ ~
 69  II, 18|          the previous quantity of water, which the machine draws
 70  II, 18|       amount will be 20060 tunnor water per twenty-four hours which
 71  II, 18|         adds to the weight of the water which the machine draws
 72  II, 18|           an incredible weight of water which the machine is able
 73  II, 20|        the expenditure of drawing water from the mines can be made
 74  II, 20|       with the old way of drawing water by means of horses, which
 75  II, 20|           the machine has to draw water is 30 klafter or 180 feet;~ ~"
 76  II, 20|          to draw 117,600 skålpund water in an hour. (This machine,
 77  II, 20|         delivered 71,400 skålpund water less in an hour than the
 78  II, 20|           be able to draw all the water from the mine, they decided
 79  II, 20|          a machine for pumping-up water from the same depth as the
 80  II, 20|        artifice has drawn 25 feet water per minute by means of two
 81  II, 20|        subtracting the 25 feet of water which the horse-artifice
 82  II, 20|           been lifting 53 feet of water more than the horse-artifice.~ ~"
 83  II, 21|          machine delivers 78 feet water per minute, which makes --
 84  II, 21|           contains four kannor of water, -- 312 kannor per minute.~ ~ ~ ~
 85  II, 21|          delivering 504 kannor of water per minute.~ ~ ~ ~This machine
 86  II, 22|         draw the same quantity of water in 24 hours as 66 horse-whims,
 87  II, 22|         if I take the quantity of water which the machine is able
 88  II, 23|          more than 60 big tubs of water in 12 hours, even if the
 89  II, 24|           tubs, quite filled with water, are drawn in a day or 120
 90  II, 24|         in 24 hours~ ~ 120 kannor water in each tub~ ~ 120 tubs~ ~ ~
 91  II, 24|  constitutes a larger quantity of water than any horse-whim is able
 92  II, 24|           to draw 20060 tunnor of water, and that 66 horse-whims
 93  II, 24|          draw each 300 tunnnor of water in 24 hours, or altogether
 94 III, 26|     machine is, when made to draw water from great depths, can partly
 95 III, 28|         saw 4 mills driven by the water which came out of a single
 96 III, 28|         which are so flooded with water, that they keep 1,2,3 or
 97 III, 30|           houses with a supply of water for daily use, and this
 98 III, 30|         several 1000 hogsheads of water, which from this reservoir
 99 III, 30|          One of the taps provides water for daily use, whilst the
100 III, 30|           supplied with plenty of water. It thus seems impossible,
101 III, 30|        which the machine supplies water by means of force-work,
102 III, 34|           vicinity of Liége draws water from a coal mine; But the
103 III, 34|       supplies the fountains with water, as Professor Weilderus
104 III, 35|      small cost empty the dock of water in 8 or 12 hours, in case
105 III, 35|         to draw about 9000 tunnor water per hour can be proved in
106 III, 35|       machine, instead of drawing water out of a 9 inch pump, would
107 III, 35|       pump, would be able to draw water of six 9 inch pumps, not
108 III, 35|          it would be able to draw water out of the dock by more
109 III, 35|       able to deliver 8820 tunnor water per hour.~ ~If such a machine
110 III, 38|    drawing so many 1000 tunnor of water per hour, would quite well
111 III, 38|         keep the locks clear from water, for as long a period as
112 III, 38|           in the city itself with water every day in the same way
113 III, 38|           toil they have in bring water home for daily use, could
114 III, 38|        nor only be furnished with water daily but also saved from
115 III, 39|          the machine would supply water and keep it always filled
116 III, 39|      always filled and from which water could be supplied to any
117 III, 40|        accidental fire sufficient water can be had high up under
118 III, 41|         and conduits with running water in all the open places without
119 III, 41|          market place, from which water would right high up in the
120 III, 41|          to this be drenched with water in case of fire.~ ~How much
121 III, 41|   supplying the town with running water from fountains and the houses
122 III, 41|       with a sufficient supply of water in case of fire.~ ~We need
123 III, 41|         if a sufficient supply of water had been accessible at all
124 III, 41|          useless if the supply of water runs short and the fire
125 III, 41|     upper-hand whilst waiting for water.) is supplying a fountain,
126 III, 41|           Vienna is able to throw water perpendicularly 10 or 12
127 III, 43|           derive their power from water and winds, as for instance
128 III, 43|        and winds, as for instance water wheels and wind-mills which
129 III, 43|           upon running or falling water and cannot thus be placed
130 III, 43|      certain part of the power of water can be utilized, and this
131 III, 44|        have a certain quantity of water enclosed in a dam and think
132 III, 44|       requires a double amount of water, so that if the same quantity
133 III, 44|           if the same quantity of water proved sufficient to keep
134 III, 44|          the insufficiency of the water power or the means of transmitting
135 III, 44|          any other way of drawing water out of a great depth than
136 III, 46|         form of the weight of the water is brought to bear, pushing