CHAPTER III.

FALLACIES OF SCIENTISTS.

IGNORANCE OF SKEPTICS--ERRORS IN ASTRONOMY GEOLOGY NOT

RELIABLE--SCIENTISTS DISAGREE--TESTIMONIES OF HUGH MILLER--HUMBOLDT

--LYELL--SECOND-HAND KNOWLEDGE--OUR NEED OF FAITH.

"A little or superficial knowledge may incline a man's mind to atheism;

but depth in philosophy bringeth him back to religion." So said Francis

Bacon, one of the world's greatest philosophers, and history has proved

his saying to be true. The {37} great lights of the scientific world,

such as Columbus, Copernicus, Galileo, Kepler, Newton, Herschel,

Agassiz, Rosse or Proctor, all have cherished a reverence for religion.

On the other hand, it is generally third or fourth rate men of

learning, or those whose impetuosity is greater than their judgment,

who ever attempt to achieve distinction as infidel lecturers. Men who

have failed in their business for want of capacity, frequently turn

misanthropes and denounce truths and men that they have not brains

enough to comprehend. True, apostate Christianity has been "weighed in

the balances and found wanting," but does that prove that there is no

vital, no divine religion that will satisfy the intellect of man with

its truths, and touch the heart with its love--a Christianity which,

bearing the full impress of its Author's image, shall take its place

among the various forces at work in society and eventually subordinate

them all? Nay, verily! As well might we say that because there are

counterfeit bank bills in existence, therefore, none are genuine.

One cannot help being amazed at the cool impudence with which infidels

take for granted the very points to be proved, and set aside, as

unworthy of serious examination, the most authentic records of history

and facts of science. When skeptics, who are determined not to believe

in the Bible, find the historical evidences of its genuineness,

authority and inspiration impossible to be overthrown by ridicule or

sophistry, they turn their attention to some other mode of attack;

and, of {38} late years, they have ransacked the whole circle of

sciences hoping to find a more powerful weapon. Especially has every

new discovery been hailed by skeptics as an ally to their cause, until

further acquaintance has proved that it was not so. Thus, when geology

began to upheave its titanic form it was eagerly greeted by skeptics;

but now that they have discovered the proofs it gives of a Creator they

are getting shy of its acquaintance.

It is, therefore, worth while to enquire, is science really so positive

as these persons pretend? Or, is it true that the students of the

physical sciences have no certain knowledge of their theories? We need

not here speak of the disputes between Herschel and Ferguson, Newton

and Brewster, La Place and Lionville. Rather let us begin with the most

positive of all sciences. _Mathematics_--the science of magnitude and

numbers--and note a few things concerning it. Upon reflection, it is

surprising how few subjects are capable of a mathematical demonstration.

The mathematician may demonstrate the size and properties of a

triangle, but he cannot demonstrate the continuance of any actual

triangle for one hour, or one minute after his demonstration.

A mathematical proof admits of no doubts or contingencies. A man may

calculate the force of the wind, but he cannot tell how long it will

continue to blow in that direction, whether it will increase to a

hurricane or subside to a calm. He may count the revolutions of an

engine, but he cannot test its extreme power, or prove its continued

{39} existence for a single hour. How many of the most important

affairs of life can be demonstrated by means of the multiplication

table? It would be safe to say not one in ten. Again, mathematics

frequently deal with purely ideal figures, which never did or never can

exist. There is not a mathematical line--length without breadth--in

all the universe. On careful examination, we find that there are no

mathematical figures in nature. We speak of the earth as a sphere,

but it is a sphere pitted with hollows as deep as the ocean, and

crested with protuberances as high as the Andes or Himalayas, in every

conceivable irregularity of form. There is not an acre of absolutely

level ground on the face of the earth; even its waters pile themselves

up in waves, or dash into breakers, rather than remain perfectly level

for a single hour. The microscope reveals the fact that the pearl is

proportionally rougher than the surface of the earth, and the dew-drop

is no nearer round than a pear. When we speak of the orbits of the

planets as elliptical or circular, it is only in a general way; just as

we speak of a circular saw, the outline of its teeth being regularity

itself, as compared with the motions of the planets in their orbits.

So also with _Astronomy_, it is far from being an exact science. From

the comparative simplicity of the forces with which it has to deal,

and the approximate regularity of the paths of the heavenly bodies,

it may be regarded as the science in which the greatest possible

certainty is attainable. {40} It opens, at once, the widest field to

the imagination, and the noblest range to the reason; it has attracted

the most exalted intellects to its pursuit, and has rewarded their

toils with the grandest discoveries. Lest we should ascribe to the

discoverers of the laws of the universe, the glory due to their

Creator, let us glance at some of the errors of astronomy.

Sir John Herschel, than whom none has a better right to speak on this

subject, devotes a chapter to the "Errors of Astronomy."

"No philosophical observation or experiment is absolutely accurate. The

error of a thousandth part of an inch in an instrument, will multiply

itself into thousands and millions of miles according to the distance

of the object."

To begin at our own little globe, where exactness is more easily

attained, than among distant planets, we find that two of the greatest

astronomers, Bessel and Newton, differ from each other in the

measurement of the diameter of the earth fully eleven miles. So also

the diameter of the earth's orbit is uncertain by 360,000 miles. Now

the diameter of the earth, and the diameter of its orbit are the very

foot rule and yard stick, as it were, by which astronomers measure the

heavens. (_See Humboldt's Cosmos, Vol, I. page 7, and Vol. IV. page

477._)

"Let us then be candid," says Loomis, "and claim no more for astronomy

than is reasonably due. When in 1846 the great astronomer Le Verrier

announced the existence of a planet hitherto unseen, and when he

assigned to it its exact position {41} in the heavens, and declared

that it shone like a star of the eighth magnitude, not an astronomer

of France, and scarcely one in Europe had sufficient faith in the

prediction to prompt him to point his telescope to the heavens."

So also geology, one of the most recent of the sciences, and in the

hands of infidel nurses one of the most noisy, has been found to be

unreliable in many particulars. True a wonderful outcry has been

raised about the antagonism between the records of the rocks, and the

records of the Bible. But no one has yet succeeded in proving such an

antagonism; for the plain reason that neither the Bible nor geology

says how old the earth is. They both say it is very old. The Bible

says, "In the beginning God created the heavens and the earth." The

term here translated "in the beginning" signifies, as every Hebrew

scholar knows, a period of such remote antiquity, that in Bible

language it stands next to eternity. Now if the geologist could prove

that the earth is a thousand million years older than the time when

Adam appeared upon it, this would contradict no statement of the Bible.

So when infidels come to us with their geological theories about the

manner in which God made the earth, or in which the earth is said to

have made itself, and how long it took to do it, and tell us that

they have scientific demonstration from the rocks that the Bible is

false, we surely have a right to enquire into the foundation of these

theories upon which they have built such startling conclusions. Now it

is remarkable that every infidel {42} argument is based not upon the

_facts_, but upon the _theories_ of geology. But how does our infidel

geologist set about his work of proving that the earth has any given

age, say a thousand million years? Why he simply commences with a

theory or supposition. Yet a demonstration must rest upon facts, it

admits of no suppositions. In examining the crust of the earth we find

a great many layers of rocks, one above the other, evidently formed

below the water, some of them out of the fragments of former rocks

containing bones, shells and casts of fishes and tracks of the feet

of birds, made when these rocks were in the state of soft mud. These

layers form what is termed the crust of the earth, and are altogether

several miles in thickness. Yet not one of these layers gives us the

element of time. They announce to us successive generations of animals

and plants; but they do not tell us how long these generations lived.

We have every reason to believe that the condition of the world was

very different then, from what it is now; not only as regards its

temperature, of which we have many proofs that it was much higher than

at present; but likewise in regard to the density of the atmosphere

and the distribution of water on the surface of the globe. All these

conditions indicate that both animal and vegetable life were then

far different from what they are now, as the fossil remains of those

animals and plants abundantly and unquestionably prove. But in all this

we have no means of determining the duration of those species. The

various species of plants and animals may have flourished during a

period of a thousand, a million, or a thousand million years for all we

know.

{43}

[ILLUSTRATION: SECTION OF THE CRUST OF THE EARTH]

RECENT DEPOSITS--Showing remains of animals still existing.

QUATERNARY--Showing remains of some extinct and some living species.

First appearance of deciduous trees, (those that drop their leaves in

autumn) showing alternations of heat and cold.

Remains of vertebrates (animals having back bones) of the more perfect

species.

Mammals, (milk-giving animals); carnivora, (flesh-eating animals),

monkeys, etc.

First appearance of birds and land monsters, megatheriums, mammoths,

etc.

CRETACIOUS ROCKS--Age of reptiles and amphibious monsters, as

iguanodons, saurians and crocodiles.

CARBONIFEROUS ROCKS--Age of coal formation; first indications of

reptiles, numerous amphibious animals--supposed uniform climate.

SUB-CARBONIFEROUS--First traces of amphibious animals.

First traces of cone-bearing trees, pines, ferns, etc.

First fishes; first vertebrates; numerous shell fish; limestone strata.

Chalk measures; sandstone strata,

SILURIAN ROCKS--Few traces of life; old red sandstone.

HURONIAN ROCKS--No traces of life; gneiss, quartz, felspar, mica.

LAURENTIAN Rocks--Granite.

{44} Here is a problem exactly similar. On examination we find

that a certain house is built on a foundation of well-cemented concrete

three feet deep, that it has ten courses of stone in the basement,

forty courses of brick in the first story, thirty-six courses in the

second, thirty-two in the third; with a roof of nine inch rafters,

covered with inch boards, and an inch and a half layer of coal-tar and

gravel; now tell us how long was the house in building? Why the very

school-boy would laugh at the absurdity of such a question. He would

say, "How can I tell unless I know where the materials were obtained,

how they were conveyed, how many workmen were employed, and how much

they could do in a day? If the rock had been brought from a distance,

the brick to be made by hand, the lumber all dressed with a handsaw and

jackplane, and all the work done by a slowgoing jobbing contractor who

employed only three or four men--why, they would not get through in a

year. But if the rock was found in excavating the cellar, if the brick

were made by machinery and near at hand, the lumber dressed by steam

saw and planing mills, and thirty or forty workmen employed, it might

be all finished in a month."

So the geologist ought to say, "I do not know either the source of the

materials of the earth's strata nor the distance from which they were

conveyed to their present position, nor the forces which were employed

in changing them from their {45} primitive elements to the forms in

which we now see them; therefore I cannot tell the time required for

their formation. If the crust of the earth was originally fused into

granite by intense heat, and this granite has been thrown up into

vast mountains by the internal heat of the earth; and in turn, these

mountains have been slowly worn away, by the action of wind, rain and

frost, and conveyed down to the shores of the primeval ocean, by the

still slower agency of mountain torrents and rivers; and if these

deposits having first been the home of various species of animals and

plants have hardened into rock which in turn has been heaved up by

volcanic forces--if this was the mode of creation, hundreds of millions

of years may have been required to produce the effects we now see upon

the surface of the globe.

"But if the crust of the earth originally consisted of the various

elements of which granite and other rocks are composed, if (as is

generally conceded, granite is the lowest in the scale of all the rocks

with which man is acquainted,) the granite was fused into its present

condition by the intense heat generated by the chemical action of these

elements upon each other, and if the overlying strata were consolidated

by the vast pressure of a universal ocean, as is generally conceded to

have covered the earth at a certain geologic period, and if these rocks

were baked by their own chemical heat or by the continuous heat of the

underlying granite, while the cooler temperature of the water above

prevented the upper strata from becoming {46} so solid--then, under

such circumstances, a very few centuries might suffice." (_See Lyell's

Principles of Geology, chapters_ 12 _and_ 32.)

Until these indispensable preliminaries are settled, geology can make

no calculations of the length of time occupied by the formation of the

strata.

Again, all geological computations of time are made upon the

supposition that only the same agents were then at work which we now

see, that they wrought with the same degree of force and produced the

same results though working under widely different conditions. For

example, suppose it now takes a year to deposit mud enough at the

bottom of the sea, to make an inch of rocks, and _if mud was deposited

no faster_ in those remote ages, then the rocks would be as old as

there are inches in the eight or nine miles depth to which the strata

extends. But how can we prove that mud was deposited at the same rate

then as now? And so the whole fabric of geological chronology vanishes

into a mere unproved notion, based upon an _if_.

It is truly astonishing that any sober-minded person should allow

himself to be shaken in his religious convictions by the alleged

results of a science so unformed and imperfect, as geologists

themselves acknowledge their favorite science to be. Thus Hugh Miller

admits, "There are no calculations more doubtful than those of the

geologist;" and again, "It furnishes us with no certain clue by which

to unravel the unapproachable mysteries of {47} creation." (_See

Footprints of the Creator, page_ 313.)

These mysteries belong to the wondrous Creator, and to Him only. Men

attempt to theorize upon them, and to reduce them to law; but all

nature rises up against them in their presumptuous rebellion. A stray

splinter of cone-bearing wood, a fish's skull, the skeleton of a

reptile, the tooth or jaw of a quadruped, all or any of these things--

weak and insignificant as they may seem--when found imbedded in the

strata of the rocks, become evidence too strong for man and all his

theories. These puny fragments in the grasp of truth become weapons as

irresistible as the dry bone in the hand of Sampson of old; and our

slaughtered theories lie piled up heaps upon heaps before them.

Then, again, they are quarreling about the leading principles of the

science. Hopkins attempts to prove that the crust of the earth is

eight hundred miles thick, while Humboldt asserts that it is less

than twenty-four. As the temperature increases one degree for every

forty-five feet we descend into the earth, so, at that rate, in less

than twenty-four miles the heat would be so great as to melt iron and

almost any known substance. But here, again, they differ. Wedgewood

declares that iron melts at 21,000 degrees Fahrenheit; while Professor

Daniels is positive that it melts at 2,786 degrees, Fahrenheit. Only a

slight difference of 18,214 degrees.

But then comes the great question: if granite is the lowest layer in

the strata, what is below the {48} granite? De Beaumont affirms that

"the whole globe, with the exception of a thin envelope--much thinner

in proportion than the shell of an egg--is a melted mass kept fluid

by heat, but constantly cooling and contracting its dimensions and

occasionally cracking and falling in, and squeezing upwards large

portions of the mass, thus producing those folds or wrinkles which we

call mountain chains." On the other hand, Davy and Lyell think that "we

may perhaps refer the heat of the interior to chemical changes going on

in the earth's crust." So much for the uncertainties of geology.

If space permitted, it would be easy to go over other sciences and show

similar uncertainties in them all. It is worthy of notice that the

uncertainties of science increase just in proportion to our interest

in it. About what does not concern us, it is very positive; but very

uncertain about our dearest interests. The astronomer may calculate

with considerable certainty the movements of distant planets with which

we have no intercourse; but he cannot predict the heat or cold, clouds

or sunshine, and other phenomena continually occurring on our earth.

The forces of heat may be measured, to some extent, but what physician

can measure the strength of the malignant fever that is destroying the

life of his patient. The chemist can thoroughly analyze any foreign

substance, but the disease of his own body, which is bringing him to

the grave, he can neither weigh, measure nor remove. Science is very

positive about distant {49} stars and remote ages, but stammers and

hesitates about the very lives of its professors.

If such are the uncertainties of science to the actual investigators,

what shall we say to him who has learned his science at school? When

we meet with such an infidel, who denounces religion while he extols

the certainties of science, would it not be well to ask a few questions

such as the following? Have you personally measured the diameter of the

earth, observed the transit of Venus, or calculated the distance of the

moon? Or, further, would you feel yourself competent to perform such

labor; or is it possible that, after all your boasting, you have taken

your science at second-hand, and on the testimony of another? Again,

perhaps you are a student of the stone book (as scientists sometimes

call the strata of the earth's crust), with its enduring records graven

in the rock forever; and perhaps you profess to believe that under

these ponderous strata the Bible has found an everlasting tomb! But how

many of the volumes of this stone book have you perused personally!

Have you ever visited the many localities in our own country, to say

nothing of the instructive lessons to be learned from the strata of

England, Scotland, Wales, the Himalayas, the Andes and the Lauretian

rocks of Canada, where the different formations are to be seen? Have

you personally excavated from their beds, the various fossils that

form, as it were, the very alphabet of the science; or, is it possible

that all you know of geology is from the specimens of collectors, and

the statements {50} of lecturers aided by maps of ideal stratification

in rose-pink, brimstone-yellow and indigo-blue?

But perhaps you are a chemist, and proud, as most chemists are, of

the accuracy attainable in that most demonstrative science. But how

much of it is really science to you? Of the nine hundred and forty-two

substances mentioned in Turner's Chemistry, how many have you analyzed?

Could you truthfully say one-half, one-fourth, or even one-tenth? Much

less, would you face the laughter of a college class, to-morrow, upon

the experiment of taking nine out of the nine hundred, reducing them

to their primitive elements, and giving an accurate analysis of their

component parts?

In fact, do you know anything worth mentioning of the facts of science

upon your own knowledge, except those of the trade by which you make

your living? Or, after all your boasting about scientific certainty, is

it true that you have been obliged to receive your science upon faith,

at second-hand, and on the word of another, and to save your life you

could not tell who that other is, or even name the discoverers of half

the scientific truths you believe? Therefore, whatever precision may be

attained by scientific men--and we have seen that it is not much--it

is very certain you have none of it. The very best you can have to

wrap yourself in is a second-hand assurance, grievously torn by rival

schools, and needing to be patched every month by later discoveries.

{51} But this is not all. Most sciences are not only uncertain, but

also insufficient. We demand the knowledge of truths of which science

is profoundly ignorant. Of all the great problems and precious

interests which belong to me as a mortal or immortal being, science

knows nothing. I ask her whence I came. She points to her pinions

stretched over the abyss of primeval fire, her eyes blinded by its

awful glare, and remains silent. I inquire what I am; but the strange

and questioning _I_ is a mystery which she can neither analyze nor

measure. I tell her of the voice of conscience within--she never heard

it and does not pretend to understand it. I tell her of my anxieties

about the future--she is learned only in the past. I inquire how I may

be happy hereafter--but happiness is not a scientific term, and she

cannot even tell me how to be happy here! Poor, blind science!

Further still, all our dearest interests lie beyond the domains

of physical science, in the regions of faith. Science treats of

things--faith is confidence in persons. Take away the persons and of

what value are the things? The world becomes at once a vast desert, a

dreary solitude. I can live, and love, and be happy without science;

but not without companionship whose bond is faith. In its sunshine

alone can happiness grow. It is faith sends man out in the morning to

his work, nerves his arms through the toils of the day, brings him

home in the evening, gathers the children around the table, inspires

the oft-repeated efforts of the little prattler to ascend his parent's

knee, clasps the chubby arms {52} around his neck, looks with the most

confiding innocence into his eye and puts forth the little hand to

catch his bread and share his cup. Undoubting faith is happiness even

here below. Need we marvel, then, that man must be converted from his

pride of empty, barren science, and casting himself with all his powers

into the arms of faith, become as a little child before he can enter

into the kingdom of heaven?

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