Atmosphere Quotes (20)

A sound Physics of the Earth should include all the primary considerations of the earth's atmosphere, of the characteristics and continual changes of the earth's external crust, and finally of the origin and development of living organisms. These considerations naturally divide the physics of the earth into three essential parts, the first being a theory of the atmosphere, or Meteorology, the second, a theory of the earth's external crust, or Hydrogeology, and the third, a theory of living organisms, or Biology.
Hydrogéologie (1802), trans. A. V. Carozzi (1964), 18.
See also:  |  Biology (48)  |  Earth (98)  |  Geology (114)  |  Meteorology (12)  |  Organism (26)  |  Physics (70)

Big whorls have little whorls
Which feed on their velocity
And little whorls have lesser whorls,
And so on to viscosity.
[Concerning atmospheric turbulence.]
Weather Prediction by Numerical Process (1922), 66. Quoted in Benoit Mandelbrot, The Fractal Geometry of Nature (1977), 402.

But when it has been shown by the researches of Pasteur that the septic property of the atmosphere depended not on the oxygen, or any gaseous constituent, but on minute organisms suspended in it, which owed their energy to their vitality, it occurred to me that decomposition in the injured part might be avoided without excluding the air, by applying as a dressing some material capable of destroying the life of the floating particles. Upon this principle I have based a practice.
'On the Antiseptic Principle in the Practice of Surgery', The British Medical Journal (1867), ii, 246.
See also:  |  Antiseptic (3)  |  Decay (7)  |  Dressing (2)  |  Infection (11)  |  Injury (3)  |  Microorganism (17)  |  Oxygen (14)  |  Louis Pasteur (8)  |  Treatment (35)

Chemistry affords two general methods of determining the constituent principles of bodies, the method of analysis, and that of synthesis. When, for instance, by combining water with alkohol, we form the species of liquor called, in commercial language, brandy or spirit of wine, we certainly have a right to conclude, that brandy, or spirit of wine, is composed of alkohol combined with water. We can produce the same result by the analytical method; and in general it ought to be considered as a principle in chemical science, never to rest satisfied without both these species of proofs. We have this advantage in the analysis of atmospherical air, being able both to decompound it, and to form it a new in the most satisfactory manner.
Elements of Chemistry (1790), trans. R. Kerr, 33.
See also:  |  Air (31)  |  Alcohol (4)  |  Analysis (39)  |  Chemistry (91)  |  Conclusion (28)  |  Decomposition (6)  |  Language (39)  |  Proof (63)  |  Synthesis (11)  |  Wine (5)

For nature is a perpetuall circulatory worker, generating fluids out of solids, and solids out of fluids, fixed things out of volatile, & volatile out of fixed, subtile out of gross, & gross out of subtile, Some things to ascend & make the upper terrestriall juices, Rivers and the Atmosphere; & by consequence others to descend for a Requitall to the former. And as the Earth, so perhaps may the Sun imbibe this spirit copiously to conserve his Shineing, & keep the Planets from recedeing further from him. And they that will, may also suppose, that this Spirit affords or carryes with it thither the solary fewell & materiall Principle of Light; And that the vast aethereall Spaces between us, & the stars are for a sufficient repository for this food of the Sunn and Planets.
Letter to Oldenburg (7 Dec 1675). In H. W. Turnbull (ed.), The Correspondence of Isaac Newton, 1661-1675 (1959), Vol. 1, 366.
See also:  |  Aether (5)  |  Earth (98)  |  Fuel (6)  |  Light (52)  |  Planet (40)  |  River (13)  |  Sun (43)

HURRICANE, n. An atmospheric demonstration once very common but now generally abandoned for the tornado and cyclone. The hurricane is still in popular use in the West Indies and is preferred by certain old- fashioned sea-captains.
The Collected Works of Ambrose Bierce (1911), Vol. 7, The Devil's Dictionary,  143-144.
See also:  |  Humour (91)

I will not now discuss the Controversie betwixt some of the Modem Atomists, and the Cartesians; the former of whom think, that betwixt the Earth and the Stars, and betwixt these themselves there are vast Tracts of Space that are empty, save where the beams of Light do pass through them; and the later of whom tell us, that the Intervals betwixt the Stars and Planets (among which the Earth may perhaps be reckon'd) are perfectly fill'd, but by a Matter far subtiler than our Air, which some call Celestial, and others Æther. I shall not, I say, engage in this controversie, but thus much seems evident, That If there be such a Celestial Matter, it must ' make up far the Greatest part of the Universe known to us. For the Interstellar part of the world (If I may so stile it) bears so very great a proportion to the Globes, and their Atmospheres too, (If other Stars have any as well as the Earth,) that It Is almost incomparably Greater in respect of them, than all our Atmosphere is in respect of the Clouds, not to make the comparison between the Sea and the Fishes that swim in it.
A Continuation of New Experiments Physico-Mechanical, Touching the Spring and Weight of the Air, and their Effects (1669), 127.
See also:  |  Dark Matter (2)  |  Earth (98)  |  Ether (9)  |  Star (60)  |  Universe (143)

In discussing the state of the atmosphere following a nuclear exchange, we point especially to the effects of the many fires that would be ignited by the thousands of nuclear explosions in cities, forests, agricultural fields, and oil and gas fields. As a result of these fires, the loading of the atmosphere with strongly light absorbing particles in the submicron size range (1 micron = 10-6 m) would increase so much that at noon solar radiation at the ground would be reduced by at least a factor of two and possibly a factor of greater than one hundred.
Paul J. Crutzen -and John W. Birks (1946-, American chemist), 'The Atmosphere after a Nuclear War: Twilight at Noon', Ambio, 1982, 11, 115.
See also:  |  Atomic Bomb (36)  |  War (51)

In the infancy of physical science, it was hoped that some discovery might be made that would enable us to emancipate ourselves from the bondage of gravity, and, at least, pay a visit to our neighbour the moon. The poor attempts of the aeronaut have shewn the hopelessness of the enterprise. The success of his achievement depends on the buoyant power of the atmosphere, but the atmosphere extends only a few miles above the earth, and its action cannot reach beyond its own limits. The only machine, independent of the atmosphere, we can conceive of, would be one on the principle of the rocket. The rocket rises in the air, not from the resistance offered by the atmosphere to its fiery stream, but from the internal reaction. The velocity would, indeed, be greater in a vacuum than in the atmosphere, and could we dispense with the comfort of breathing air, we might, with such a machine, transcend the boundaries of our globe, and visit other orbs.
God's Glory in the Heavens (1862, 3rd Ed. 1867) 3-4.
See also:  |  Exploration (26)  |  Gravity (41)  |  Moon (37)  |  Rocket (9)  |  Space Travel (9)  |  Vacuum (7)

It is the destiny of wine to be drunk, and it is the destiny of glucose to be oxidized. But it was not oxidized immediately: its drinker kept it in his liver for more than a week, well curled up and tranquil, as a reserve aliment for a sudden effort; an effort that he was forced to make the following Sunday, pursuing a bolting horse. Farewell to the hexagonal structure: in the space of a few instants the skein was unwound and became glucose again, and this was dragged by the bloodstream all the way to a minute muscle fiber in the thigh, and here brutally split into two molecules of lactic acid, the grim harbinger of fatigue: only later, some minutes after, the panting of the lungs was able to supply the oxygen necessary to quietly oxidize the latter. So a new molecule of carbon dioxide returned to the atmosphere, and a parcel of the energy that the sun had handed to the vine-shoot passed from the state of chemical energy to that of mechanical energy, and thereafter settled down in the slothful condition of heat, warming up imperceptibly the air moved by the running and the blood of the runner. 'Such is life,' although rarely is it described in this manner: an inserting itself, a drawing off to its advantage, a parasitizing of the downward course of energy, from its noble solar form to the degraded one of low-temperature heat. In this downward course, which leads to equilibrium and thus death, life draws a bend and nests in it.
The Periodic Table (1975), trans. Raymond Rosenthal (1984), 192-3.
See also:  |  Air (31)  |  Alcohol (4)  |  Blood (36)  |  Carbon Dioxide (2)  |  Chemical Energy (2)  |  Chemical Energy (2)  |  Conservation Of Energy (9)  |  Death (95)  |  Energy (42)  |  Heat (26)  |  Liver (5)  |  Lung (7)  |  Molecule (42)  |  Muscle (10)  |  Oxidation (3)  |  Oxygen (14)  |  Plant (42)  |  Sun (43)  |  Wine (5)

Meteorology has ever been an apple of contention, as if the violent commotions of the atmosphere induced a sympathetic effect on the minds of those who have attempted to study them.
'Meteorology in its Connection with Agriculture', US Patent Office Annual Report Agricultural, 1858. In J. R. Fleming, Meteorology in America: 1800-1870 (1990), 23.
See also:  |  Meteorology (12)

The Columbia is lost; there are no survivors. … In an age when space flight has come to seem almost routine, it is easy to overlook the dangers of travel by rocket, and the difficulties of navigating the fierce outer atmosphere of the Earth. These astronauts knew the dangers, and they faced them willingly, knowing they had a high and noble purpose in life. Because of their courage and daring idealism, we will miss them all the more. ... The cause in which they died will continue. Mankind is led into the darness beyond our world by the inspiration of discovery and the longing to understand. Our journey into space will go on.
Address to the Nation on the Space Shuttle Columbia tragedy, from the Cabinet Room (1 Feb 2003). In William J. Federer, A Treasury of Presidential Quotations (2004), 437.
See also:  |  Astronaut (9)  |  Courage (10)  |  Danger (9)  |  Death (95)  |  Discovery (178)  |  Exploration (26)  |  Inspiration (11)  |  Space (25)  |  Space Shuttle (5)

The earth's atmosphere is an imperfect window on the universe. Electromagnetic waves in the optical part of the spectrum (that is, waves longer than X rays and shorter than radio waves) penetrate to the surface of the earth only in a few narrow spectral bands. The widest of the transmitted bands corresponds roughly to the colors of visible light; waves in the flanking ultraviolet and infrared regions of the optical spectrum are almost totally absorbed by the atmosphere. In addition, atmospheric turbulence blurs the images of celestial objects, even when they are viewed through the most powerful ground-based telescopes.
in an article promoting the construction of the Hubble Space Telescope
Scientific American (July 1977)

The more important fundamental laws and facts of physical science have all been discovered, and these are now so firmly established that the possibility of their ever being supplanted in consequence of new discoveries is exceedingly remote. Nevertheless, it has been found that there are apparent exceptions to most of these laws, and this is particularly true when the observations are pushed to a limit, i.e., whenever the circumstances of experiment are such that extreme cases can be examined. Such examination almost surely leads, not to the overthrow of the law, but to the discovery of other facts and laws whose action produces the apparent exceptions. As instances of such discoveries, which are in most cases due to the increasing order of accuracy made possible by improvements in measuring instruments, may be mentioned: first, the departure of actual gases from the simple laws of the so-called perfect gas, one of the practical results being the liquefaction of air and all known gases; second, the discovery of the velocity of light by astronomical means, depending on the accuracy of telescopes and of astronomical clocks; third, the determination of distances of stars and the orbits of double stars, which depend on measurements of the order of accuracy of one-tenth of a second-an angle which may be represented as that which a pin's head subtends at a distance of a mile. But perhaps the most striking of such instances are the discovery of a new planet or observations of the small irregularities noticed by Leverrier in the motions of the planet Uranus, and the more recent brilliant discovery by Lord Rayleigh of a new element in the atmosphere through the minute but unexplained anomalies found in weighing a given volume of nitrogen. Many other instances might be cited, but these will suffice to justify the statement that 'our future discoveries must be looked for in the sixth place of decimals'.
Light Waves and Their Uses (1903), 23-4.
See also:  |  Accuracy (10)  |  Air (31)  |  Angle (2)  |  Anomaly (3)  |  Astronomy (68)  |  Circumstance (8)  |  Clock (6)  |  Decimal (6)  |  Discovery (178)  |  Element (27)  |  Examination (5)  |  Exception (4)  |  Experiment (218)  |  Fact (146)  |  Fundamental (10)  |  Gas (12)  |  Improvement (9)  |  Instrument (9)  |  Irregularity (2)  |  Law (145)  |  Limit (9)  |  Measurement (68)  |  Nitrogen (7)  |  Observation (147)  |  Physical Science (14)  |  Practical (11)  |  Sir John William Strutt, Lord Rayleigh (4)  |  Result (33)  |  Speed Of Light (5)  |  Star (60)  |  Telescope (22)  |  Uranus (2)  |  Volume (2)

The thoughts of Plato and Machiavelli... don't seem quite enough armor for a world beset with splitting the atoms, urban guerrillas, nineteen varieties of psychotherapists, amplified guitars, napalm, computers, astronauts, and an atmosphere polluted simultaneously with auto exhaust and TV commercials.
See also:  |  Astronaut (9)  |  Atom (92)  |  Automobile (2)  |  Commercial (5)  |  Computer (25)  |  Nuclear Energy (2)  |  Plato (15)  |  Pollution (5)

Until that afternoon, my thoughts on planetary atmospheres had been wholly concerned with atmospheric analysis as a method of life detection and nothing more. Now that I knew the composition of the Martian atmosphere was so different from that of our own, my mind filled with wonderings about the nature of the Earth. If the air is burning, what sustains it at a constant composition? I also wondered about the supply of fuel and the removal of the products of combustion. It came to me suddenly, just like a flash of enlightenment, that to persist and keep stable, something must be regulating the atmosphere and so keeping it at its constant composition. Moreover, if most of the gases came from living organisms, then life at the surface must be doing the regulation.
Homage to Gaia: The Life of an Independent Scholar (2000), 253.
See also:  |  Air (31)  |  Analysis (39)  |  Combustion (9)  |  Composition (7)  |  Enlightenment (3)  |  Extraterrestrial Life (3)  |  Fuel (6)  |  Gaia (2)  |  Mars (7)  |  Organism (26)  |  Planet (40)

We have made many glass vessels... with tubes two cubits long. These were filled with mercury, the open end was closed with the finger, and the tubes were then inverted in a vessel where there was mercury. We saw that an empty space was formed and that nothing happened in the vessel where this space was formed ... I claim that the force which keeps the mercury from falling is external and that the force comes from outside the tube. On the surface of the mercury which is in the bowl rests the weight of a column of fifty miles of air. Is it a surprise that into the vessel, in which the mercury has no inclination and no repugnance, not even the slightest, to being there, it should enter and should rise in a column high enough to make equilibrium with the weight of the external air which forces it up?
Quoted in Archana Srinivasan, Great Inventors (2007), 27-28.
See also:  |  Barometer (2)  |  Experiment (218)  |  Mercury (21)  |  Vacuum (7)

When the movement of the comets is considered and we reflect on the laws of gravity, it will be readily perceived that their approach to Earth might there cause the most woeful events, bring back the deluge, or make it perish in a deluge of fire, shatter it into small dust, or at least turn it from its orbit, drive away its Moon, or, still worse, the Earth itself outside the orbit of Saturn, and inflict upon us a winter several centuries long, which neither men nor animals would be able to bear. The tails even of comets would not be unimportant phenomena, if in taking their departure left them in whole or part in our atmosphere
CosmoIogische Briefe über die Einrichtung des Weltbaues (1761). In Carl Sagan, Broca's Brain (1986), 95.
See also:  |  Animal (63)  |  Comet (14)  |  Dust (6)  |  Earth (98)  |  Fire (22)  |  Flood (7)  |  Gravity (41)  |  Man (115)  |  Moon (37)  |  Orbit (21)  |  Saturn (7)  |  Winter (2)

Why Become Extinct? Authors with varying competence have suggested that dinosaurs disappeared because the climate deteriorated (became suddenly or slowly too hot or cold or dry or wet), or that the diet did (with too much food or not enough of such substances as fern oil; from poisons in water or plants or ingested minerals; by bankruptcy of calcium or other necessary elements). Other writers have put the blame on disease, parasites, wars, anatomical or metabolic disorders (slipped vertebral discs, malfunction or imbalance of hormone and endocrine systems, dwindling brain and consequent stupidity, heat sterilization, effects of being warm-blooded in the Mesozoic world), racial old age, evolutionary drift into senescent overspecialization, changes in the pressure or composition of the atmosphere, poison gases, volcanic dust, excessive oxygen from plants, meteorites, comets, gene pool drainage by little mammalian egg-eaters, overkill capacity by predators, fluctuation of gravitational constants, development of psychotic suicidal factors, entropy, cosmic radiation, shift of Earth's rotational poles, floods, continental drift, extraction of the moon from the Pacific Basin, draining of swamp and lake environments, sunspots, God's will, mountain building, raids by little green hunters in flying saucers, lack of standing room in Noah's Ark, and palaeoweltschmerz.
'Riddles of the Terrible Lizards', American Scientist (1964) 52, 231.
See also:  |  Climate Change (6)  |  Comet (14)  |  Continental Drift (2)  |  Diet (12)  |  Dinosaur (6)  |  Disease (117)  |  Extinction (30)  |  Flood (7)  |  Gene (38)  |  Moon (37)  |  Mountain (32)  |  Parasite (14)  |  Poison (17)  |  Suicide (9)  |  Volcano (15)

… the icy layers of the upper atmosphere contain conundrums enough to be worthy of humanity's greatest efforts.
Begrüssungsworte', Fourth conference of the International Commission for Scientific Aeronautics, St. Petersberg, 1904 (1905), 28-35. Quoted in Peter Lynch, The Emergence of Numerical Weather Prediction (2006), 97.
See also:  |  Meteorology (12)  |  Research (221)

back arrow
Custom search within only our quotations pages:
Sitewide search within all Today In Science History pages:

Visit our Science and Scientist Quotations index for more Science Quotes from archaeologists, biologists, chemists, geologists, inventors and inventions, mathematicians, physicists, pioneers in medicine, science events and technology.

Names index: | A | B | C | D | E | F | G | H | I | J | K | L | M | N | O | P | Q | R | S | T | U | V | W | X | Y | Z |

Categories index: | A | B | C | D | E | F | G | H | I | J | K | L | M | N | O | P | Q | R | S | T | U | V | W | X | Y | Z |



Site Navigation


If you find this site useful, please add a link from your site.


Today in Science History
Quotations
by scientists, inventors, on science and more.
- Go To Index -

Buy Telescopes and other Stargazing Devices from Edmund Scientific

9,747,196


Test Link - Please Ignore