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| Alphabetical [« »] watch 5 watch-glass 2 watching 1 water 199 water-springs 1 wax 5 way 42 | Frequency [« »] 209 now 202 with 199 not 199 water 176 if 174 but 164 here | Michael Faraday Lectures on the Forces of Matter IntraText - Concordances water |
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1 I | much is land and so much is water; and by looking at it here
2 I | of matter which we call water - it is there ice [pointing
3 I | ice upon the table], there water - [pointing to the water
4 I | water - [pointing to the water boiling in a flask] - here
5 I | suppose that that ice and that water are two entirely different
6 I | different from the fluid water: it may be different in
7 I | nevertheless, as the great ocean of water around our globe, and I
8 I | refer. For instance, here is water - it is heavy; but let us
9 I | but if I now take some water and pour it in, you see
10 I | if this vessel would hold water enough to weigh it down. [
11 I | The lecturer poured more water into the jar, which again
12 I | above the vessel to pour the water into it? You will say, because
13 I | a law of nature that the water should fall toward the earth,
14 I | which I use to cause the water to enter the vessel are
15 I | carry the whole body of water down. That power is what
16 I | the scales] a good deal of water gravitating toward the earth.
17 I | much as the whole of that water. See what a little there
18 I | is heavier than so much water [placing the metal in opposite
19 I | in opposite scales to the water]. What a wonderful thing
20 I | that it requires so much water as that [a half-pint vessel
21 I(2) | 21 1/2 times heavier than water.
22 I | the platinum], we find the water will balance that as well
23 I | powers.~ ~I have spoken of water, and first of all of its
24 I | are other properties of water. Here, for instance, is
25 I | quicklime, and if I add some water to it, you will find another
26 I | power and property in the water. 4 It is now very hot; it
27 I(3) | 2 1/2 times heavier than water.
28 I | happen without a force in the water to produce the result; but
29 I(4) | Power or property in water. This power - the heat by
30 I(4) | the heat by which the water is kept in a fluid state -
31 I(4) | insensible. When, however, the water changes its form, and, by
32 I | lecturer here poured some water over the white sulphate
33 I | time.] Here is the same water with a substance which heats
34 I | play by a leakage of the water into the barge. You see
35 I | by acting upon lime with water, and the power which water
36 I | water, and the power which water has of turning this salt
37 I | saw that in the case of water when I placed it in the
38 I | that power which caused the water to descend in the balance -
39 I | as I can change ice into water and water into steam. I
40 I | change ice into water and water into steam. I can convert
41 I | common temperatures, which water steam has not. If I add
42 I(5) | of copper deprived of its water of crystallization. To obtain
43 I | a glass jar, and poured water and then acid over them;
44 I | marble] steam, and that [water] steam, and all other steams,
45 I | balance, tried by pouring like water from one vessel to another,
46 I | how to hang a pail of water, by means of a stick, upon
47 I | what is more, the more water I put into the pail, the
48 II | powdered alum and some hot water, and mix them together,
49 II | will be separated by the water far more completely than
50 II | but then, being in the water, they will have the opportunity
51 II | which I have put into the water, and so separated that they
52 II | longer solid, will, as the water cools, come together and
53 II | together - both colorless as water. [The lecturer here mixed
54 II(7) | add powdered alum to hot water as long as it dissolves;
55 II | had been dropped into cold water [exhibiting a "Prince Rupert'
56 II(9) | mixed with a little weak gum water, and then spread over the
57 II | better in this bottle of water, and it is very likely the
58 II | oz. vial was filled with water, and a Rupert's drop placed
59 II | transmitted through the water to the sides of the bottle,
60 II(10) | melted green glass into cold water. They were not, as is commonly
61 II | Mr. Anderson pours some water, gently and steadily, into
62 II | steadily, into the basin, the water will attract the rays of
63 II | Mr. Anderson here poured water into the basin, and upon
64 II | basin when there was no water there, and you were unable
65 II | it; but when we poured in water the rays were attracted
66 II | that when you pour warm water upon glass you put a strain
67 III | powdered alum and warm water. Here is one of the basins
68 III | is. I will not pour the water from it, because it will
69 III | point to examine, and this water is again a very good substance
70 III | philosophers we call it all water, even though it be in the
71 III | ice or steam). Why is this water hard? [pointing to a block
72 III | while part of the solid water is becoming liquid, the
73 III | off. A certain part of the water is actually rising in steam,
74 III | quite cold.~Here is the water which we have produced by
75 III | temperature the particles of water increase in their mutual
76 III | attraction decreases and the water becomes steam. And exactly
77 III | diminished as to be liquid water? Well, in diminishing this
78 III | is always concerned when water passes from the solid to
79 III | am going to pour a little water on this board, and then
80 III | from the tray, and from the water underneath, and from the
81 III | will then find that the water beneath will be frozen -
82 III | liquid into a solid, e. g., water into ice, a corresponding
83 III | now (for what is true of water is true of every other liquid),
84 III | bubbling out through the water at the end; and so we learn
85 III | glass itself; and if I pour water quietly from a jug, I can
86 III | Again: let me put a little water on this piece of plate glass,
87 III | glass and put it on the water; there! the upper plate
88 III | of the particles of the water. Let me show you another
89 III | I take a little soap and water - not that the soap makes
90 III | makes the particles of the water more adhesive one for the
91 III | manner? Why, because the water of which it is composed
92 III | sieve, and yet it would hold water, owing to the cohesion.~
93 III | now seen that the solid water can become fluid by the
94 III | continued applying heat to the water (as indeed happened with
95 III | form: when we make ice into water, we lessen its bulk; but
96 III | bulk; but when we convert water into steam, we increase
97 III | wished to convert steam into water and water into ice: in either
98 III | convert steam into water and water into ice: in either case
99 III | were to take a portion of water a cubic inch in bulk (A),
100 III | and yet it still remains water. You can easily imagine
101 III | produced by this force of water. I want you now to see another
102 III | regards heat that I did the water and the ether [putting a
103 III | understand that, if we take water as an illustration, whether
104 III | illustration, whether it be ice, or water, or steam, it is always
105 III | to be considered by us as water. Well, now prepare your
106 III | into the constitution of water beyond any that are afforded
107 III | Now here is a portion of water in this little vessel, C,
108 III | vessel, C, and besides the water there are two plates of
109 III | and I want to examine that water, and the state and the condition
110 III | would nevertheless remain water, and would return to the
111 III | these wires we can cause water to submit itself to this
112 III | at A and B), you see the water boiling in that little vessel (
113 III | how I am converting the water into vapor; and if I take
114 III | vessel (E), and fill it with water, and put it into the trough
115 III | steam is brought near cold water, it would at once condense,
116 III | and return back again to water; this, then, can not be
117 III | bubbling through the cold water in this trough; but it is
118 III | to see in what way the water has been changed. And now,
119 III | large bell-jar (F) with water; and I propose letting the
120 III | that we can reproduce the water back again from the vapor
121 III | find that we have got the water back again; it will not
122 III | you how small a portion of water produced a very large volume
123 III | stop-cocks (H H H), the water will jump up, showing that
124 III | accumulate more and more of the water to which the gas has returned.
125 III | we can go on making from water a large bulk of permanent
126 III | we can reconvert it into water in this way. [Mr. Anderson
127 III | there is not very much water flowing down, but there
128 III | changing the condition of the water is this: that we are able
129 III | purpose I have here some more water in a slightly different
130 III | similar decomposition of the water at the two platinum plates.
131 III | drawing off particles from the water and sending them off, and
132 III | Something is coming out of the water there (at H) which burns [
133 III | but what comes out of the water here (at O), although it
134 III | things, neither of them being water alone, but which we get
135 III | which we get out of the water. Water is therefore composed
136 III | we get out of the water. Water is therefore composed of
137 III | take an inverted tube of water and collect this gas (H),
138 III | itself. So now we see that water consists of two kinds of
139 III | attraction of iron for iron, water for water, wood for wood,
140 III | iron for iron, water for water, wood for wood, or like
141 III | chemically combine and produce water.~I must now show you a little
142 III | substances as well as from water; and we will now prepare
143 III | different jars filled with water, and when, by the application
144 III | decomposed, we will displace the water, and fill the jars with
145 III | jars with gas.~Now, when water is opened out in this way
146 III | which adds no matter to the water, it is changed in this way -
147 III | these two areas represent water, and these are always the
148 III | 9 Hydrogen . . . . 11.1~Water . . . . . 100.0~But oxygen
149 III | particles of hydrogen in the water; and you therefore know
150 III | you therefore know that water is composed of nine parts
151 III | 8 grains~_____ Water (steam)........ 69.3 " " ................... =
152 III(16)| nitric acid and a little water are added to some copper
153 IV | to the forces existing in water before we can have a clear
154 IV | overcame, drawing from the water two different substances,
155 IV | combination to reproduce water. Now I propose to-day to
156 IV | particles derived from the water which enable other bodies
157 IV | the other constituent of water, and, without embarrassing
158 IV | because it helps to generate water.) 17 I put into this retort
159 IV | into this retort some zinc, water, and oil of vitriol, and
160 IV | quite as effectually as the water will in that jar which is
161 IV | and just as I can pour water from one vessel into another
162 IV | with common air, and the water which forms the bubble carries
163 IV | very common things, air, water, the heaviest body, platinum,
164 IV | the weight of portions of water, air, and hydrogen of the
165 IV | Water.....................11943 |
166 IV | unite together they produce water, and you have seen the extraordinary
167 IV | bulk and appearance of the water so produced and the particles
168 IV | together without producing water; and it is curious to think
169 IV | oxygen and hydrogen to form water without knowing it. Take
170 IV | you will see how soon the water is produced. Look at that
171 IV | dimness and these drops are water, formed by the union of
172 IV(17) | Ydwp, "water," and yevvaw, "I generate."
173 IV | are two salts dissolved in water20. They are both colorless
174 IV(20) | Two salts dissolved in water. Sulphate of soda and chloride
175 IV | atmosphere, and even on water it will float about and
176 IV | of hydrogen went to form water, I meant this, that neither
177 IV | capable of burning under water. You know that we put it
178 IV | Now I have a vessel of water here, and am going to make
179 IV | putting this fuse under the water, and you will see whether
180 IV | you will see whether that water can extinguish it; here
181 IV | it is burning out of the water, and there it is burning
182 IV | it is burning under the water; and so it will continue
183 IV | power of changing ice into water and water into steam, you
184 IV | changing ice into water and water into steam, you have seen
185 IV | the neck which is under water, because the heat which
186 IV | were to put it into boiling water it would not go through
187 IV | stem of it is filling with water. Notice too, now, that although
188 IV | cool it, by dipping it into water, it goes through with perfect
189 IV(23) | washed with warm distilled water, and then carefully dried
190 V | iron, brass to brass, or water to water. Remember that
191 V | brass to brass, or water to water. Remember that we found,
192 V | we found, on looking into water, that there were particles
193 V | oxygen and reduce it to water, but it could not attract
194 V | it on the surface of some water (the needle will generally
195 VI | the zinc is pulling the water to pieces and setting free
196 VI | power of decomposing the water, but modifies it most curiously.
197 VI | charcoal poles down under water, and get our electric light
198 VI | there. There they are in the water, and you observe, when I
199 VI(24) | must be added to give the water a decided blue color.