Chapter

 1 II   |        are moving! This stifling heat, penetrating through the
 2 III  |          The gas gave sufficient heat for the culinary apparatus,
 3 III  |           will receive light and heat. It economizes the gas,
 4 V    |         no air, there is no more heat than diffused light; and
 5 V    |       And why not?”~“Because the heat and cold would be equalized
 6 V    |        it would have undergone a heat 28,000 times greater than
 7 V    |         that of summer. But this heat, which is sufficient to
 8 V    |          of the aphelion and the heat of the perihelion.”~“At
 9 V    |           produce both light and heat in the universe.”~They now
10 VI   | Barbicane. “It is known now that heat is only a modification of
11 VI   |     warmed— that is to say, when heat is added to it—its particles
12 VI   |     every phenomenon of caloric. Heat is but the motion of atoms,
13 VI   |           It is transformed into heat, and the brake becomes hot.
14 VI   |      their heating, because this heat would be generated by the
15 VI   |        my motion is changed into heat.”~Barbicane could not help
16 VI   |      motion which is turned into heat. Consequently I affirm that,
17 VI   |      checked would have raised a heat great enough to turn it
18 VI   |         the fall would develop a heat equal to that produced by
19 VI   |         globe.”~“Good additional heat for the sun,” replied Michel
20 VI   |        suddenly stopped produces heat. And this theory allows
21 VI   |      allows us to infer that the heat of the solar disc is fed
22 VI   |       the sun ought to produce a heat equal to that of 4,000 masses
23 VI   |            And what is the solar heat?” asked Michel.~“It is equal
24 VI   |    forty-seven miles.”~“And that heat——”~“Would be able to boil
25 VI   |         four-tenths of the solar heat; besides, the quantity of
26 VI   |         besides, the quantity of heat intercepted by the earth
27 VI   |          the same length; and as heat is restored by radiation,
28 VII  |        the soup liquefied by the heat of the gas; nothing better
29 VII  |          taps, and regulated the heat of the gas by the pyrometer.
30 XIII |          transition from cold to heat, the temperature falling
31 XIV  | compensated by the insupportable heat which the light brings with
32 XIV  |         is evidently deprived of heat. But the invisible face
33 XIV  |       still more searched by the heat than the visible face. I
34 XIV  |          the same time light and heat from the sun, it is because
35 XIV  |        to 400,000 miles, and the heat which she receives must
36 XIV  |       and thus it was losing the heat stored up in its walls by
37 XIV  |       its walls by degrees. This heat was rapidly evaporating
38 XIV  |          also obliged to beg for heat. The projectile’s low temperature
39 XIV  |         light and saturated with heat, like the Indians of the
40 XIV  |          that of iron at a white heat; for whether the heat leaves
41 XIV  |      white heat; for whether the heat leaves our bodies briskly
42 XIV  |        lost by radiation all the heat which fifteen days of sun
43 XV   |       light, but not without its heat. Fortunately the caloric
44 XV   |      studies. It proved that all heat had not yet disappeared
45 XV   |         of this globe; and where heat exists, who can affirm that
46 XV   |       asteroid heated to a white heat. If thought was not destroyed
47 XVII |      With its light it also sent heat, which soon pierced the
48 XVII |          Nicholl, “these rays of heat are good. With what impatience
49 XVII |       brilliant ether, light and heat, all life is contained in
50 XVIII|        excessive cold to intense heat. Nature was thus preparing
51 XVIII|         alternations of cold and heat, her days and nights of
52 XVIII|         air, water, light, solar heat, and central heat, vegetation
53 XVIII|          solar heat, and central heat, vegetation took possession
54 XVIII| nocturnal radiation. Light, like heat, can diffuse itself in the