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| Alphabetical [« »] warm 1 was 37 watches 1 water 55 waves 1 way 2 ways 1 | Frequency [« »] 56 on 55 at 55 its 55 water 54 all 51 not 49 or | Hermann Ludwig Ferdinand von Helmholtz On the Conservation of Force IntraText - Concordances water |
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1 I | does it abundantly with water, which, being raised to 2 I | from them. The gravity of water we use as moving force, 3 I | act as receptacles for the water, and, on the side turned 4 I | buckets are upside-down. The water flows at M into the buckets 5 I | former are weighted by the water contained in them, the latter 6 I | latter not; the weight of the water acts continuously on only 7 I | resistance, for it contains no water. It is thus the weight of 8 I | the weight of the falling water which turns the wheel, and 9 I | once see that the mass of water which turns the wheel must 10 I | sources of moving force.~Water power was the first inorganic 11 I | near his palace there was a water wheel. Its use was first 12 I | Emperors. Even now we find water mills in all mountains, 13 I | brooks and streams. We find water power used for all purposes 14 I | to produce any amount of water power.~Before passing to 15 I | wheel, described above, water acts by its weight. But 16 I | the height from which the water comes is not great enough 17 I | wheels dips in the flowing water which strikes against their 18 I | neighborhood of such a wheel, the water need not necessarily have 19 I | It is the velocity of the water, exerting an impact against 20 I | supply the want of falling water, afford another instance 21 I | little drive a windmill as water at rest a water wheel. The 22 I | windmill as water at rest a water wheel. The driving force 23 II | power. In the case of the water mill, or of the windmill, 24 II | of the moving masses of water and air is necessary to 25 II | expansion, is replaced by water, which is gradually changed 26 II | and the small quantity of water which are the sources of 27 II | middle of the ocean; while water and windmills are bound 28 II | large towns where wind and water power are wanting, can be 29 II | latent. On this view, liquid water differed from solid ice 30 II | precipitated, and the liquid water restored to the state of 31 II | the vaporisation of the water.~Finally, heat is sometimes 32 II | heat which the newly formed water must have here assimilated 33 III| necessary to raise one gramme of water through one degree centigrade. 34 III| of experiments in which water was heated by friction in 35 III| vessel was substituted for water in a brass one, gave 425 36 III| to raise 80.9 pounds of water from the freezing to the 37 III| product of combustion is water, which, therefore, is not 38 III| the form of heat. In the water which has been formed during 39 III| vessels filled with acidulated water a and a1, which are separated 40 III| porous plate moistened with water. In both sides are fitted 41 III| transmitted through the water by the platinum wires, k, 42 III| are the two elements of water, hydrogen on the one hand, 43 III| glass flask filled with water over the hydrogen flame, 44 III| the hydrogen flame, the water, newly formed in combustion, 45 III| been liberated from the water by the electrical current 46 III| current which decomposes water. This current is itself 47 III| for the decomposition of water.~If now the conducting circuit 48 III| and the decomposition of water begins, a chemical process 49 III| oxygen from the surrounding water and undergoes a slow combustion. 50 III| from it is taken by the water from the nitric acid surrounding 51 III| one product of combustion, water, is again separated, a new 52 III| with oxygen and acid to water in the decomposing cell, 53 III| apparatus for decomposing water, we obtain hydrogen and 54 III| forces. We have decomposed water into its elements by such 55 IV | universe. The force of falling water can only flow down from