Of national encouragement.
The little encouragement which at
all previous periods has been afforded by the English
Government to the authors of useful discoveries, or
of new and valuable inventions, is justified on the
following grounds:
1. The public, who consume the
new commodity or profit by the new invention, are
much better judges of its merit than the government
can be.
2. The reward which arises from
the sale of the commodity is usually much larger than
that which government would be justified in bestowing;
and it is exactly proportioned to the consumption,
that is, to the want which the public feel for the
new article.
It must be admitted that, as general
principles, these are correct: there are, however,
exceptions which flow necessarily from the very reasoning
from which they were deduced. Without entering
minutely into these exceptions, it will be sufficient
to show that all abstract truth is entirely excluded
from reward under this system. It is only the
application of principles to common life which can
be thus rewarded. A few instances may perhaps
render this position more evident. The principle
of the hydrostatic paradox was known as a speculative
truth in the time of Stevinus; [About the year 1600]
and its application to raising heavy weights has long
been stated in elementary treatises on natural philosophy,
as well as constantly exhibited in lectures.
Yet, it may fairly be regarded as a mere abstract principle,
until the late Mr. Bramah, by substituting a pump instead
of the smaller column, converted it into a most valuable
and powerful engine.—The principle of the
convertibility of the centres of oscillation and suspension
in the pendulum, discovered by Huygens more than a
century and a half ago, remained, until within these
few years, a sterile, though most elegant proposition;
when, after being hinted at by Prony, and distinctly
pointed out by Bonenberger, it was employed by Captain
Kater as the foundation of a most convenient practical
method of determining the length of the pendulum.—The
interval which separated the discovery, by Dr. Black,
of latent heat, from the beautiful and successful
application of it to the steam engine, was comparatively
short; but it required the efforts of two minds; and
both were of the highest order.—The influence
of electricity in producing decompositions, although
of inestimable value as an instrument of discovery
in chemical inquiries, can hardly be said to have been
applied to the practical purposes of life, until the
same powerful genius which detected the principle,
applied it, by a singular felicity of reasoning, to
arrest the corrosion of the copper-sheathing of vessels.
That admirably connected chain of reasoning, the
truth of which is confirmed by its very failure as
a remedy, will probably at some future day supply,
by its successful application, a new proof of the
position we are endeavouring to establish.
[I am authorised in stating, that
this was regarded by Laplace as the greatest of Sir
Humphry Davy’s discoveries. It did not
fail in producing the effect foreseen by Sir H. Davy,—the
preventing the corrosion of the copper; but it failed
as a cure of the evil, by producing one of an Opposite
character; either by preserving too perfectly from
decay the surface of the copper, or by rendering it
negative, it allowed marine animals and vegetables
to accumulate on its surface, and thus impede the progress
of the vessel.]
Other instances might, if necessary,
be adduced, to show that long intervals frequently
elapse between the discovery of new principles in
science and their practical application: nor
ought this at all to surprise us. Those intellectual
qualifications, which give birth to new principles
or to new methods, are of quite a different order
from those which are necessary for their practical
application.
At the time of the discovery of the
beautiful theorem of Huygens, it required in its author
not merely a complete knowledge of the mathematical
science of his age, but a genius to enlarge its boundaries
by new creations of his own. Such talents are
not always united with a quick perception of the details,
and of the practical applications of the principles
they have developed, nor is it for the interest of
mankind that minds of this high order should lavish
their powers on subjects unsuited to their grasp.
In mathematical science, more than
in all others, it happens that truths which are at
one period the most abstract, and apparently the most
remote from all useful application, become in the next
age the bases of profound physical inquiries, and in
the succeeding one, perhaps, by proper simplification
and reduction to tables, furnish their ready and daily
aid to the artist and the sailor.
It may also happen that at the time
of the discovery of such principles, the mechanical
arts may be too imperfect to render their application
likely to be attended with success. Such was
the case with the principle of the hydrostatic paradox;
and it was not, I believe, until the expiration of
Mr. Bramah’s patent, that the press which bears
his name received that mechanical perfection in its
execution, which has deservedly brought it into such
general use.
On the other hand, for one person
who is blessed with the power of invention, many will
always be found who have the capacity of applying
principles; and much of the merit ascribed to these
applications will always depend on the care and labour
bestowed in the practical detail.
If, therefore, it is important to
the country that abstract principles should be applied
to practical use, it is clear that it is also important
that encouragement should be held out to the few who
are capable of adding to the number of those truths
on which such applications are founded. Unless
there exist peculiar institutions for the support
of such inquirers, or unless the Government directly
interfere, the contriver of a thaumatrope may derive
profit from his ingenuity, whilst he who unravels the
laws of light and vision, on which multitudes of phenomena
depend, shall descend unrewarded to the tomb.
Perhaps it may be urged, that sufficient
encouragement is already afforded to abstract science
in our different universities, by the professorships
established at them. It is not however in the
power of such institutions to create; they may foster
and aid the development of genius; and, when rightly
applied, such stations ought to be its fair and honourable
rewards. In many instances their emolument is
small; and when otherwise, the lectures which are
required from the professor are not perhaps in all
cases the best mode of employing the energies of those
who are capable of inventing.
I cannot resist the opportunity of
supporting these opinions by the authority of one
of the greatest philosophers of a past age, and of
expressing my acknowledgments to the author of a most
interesting piece of scientific biography. In
the correspondence which terminated in the return
of Galileo to a professorship in his native country,
he remarks, “But, because my private lectures
and domestic pupils are a great hinderance and interruption
of my studies, I wish to live entirely exempt from
the former, and in great measure from the latter.”—Life
of Galileo, p.18. And, in another
letter to Kepler, he speaks with gratitude of Cosmo,
the Grand Duke of Tuscany, who “has now invited
me to attach myself to him with the annual salary
of 1000 florins, and with the title of Philosopher
and principal Mathematician to his Highness, without
the duties of any office to perform, but with most
complete leisure; so that I can complete my treatise
on Mechanics, &c.”—p.31.” [Life
of Galileo, published by the Society for the Diffusion
of Useful Knowledge.]
Surely, if knowledge is valuable,
it can never be good policy in a country far wealthier
than Tuscany, to allow a genius like Mr. Dalton’s,
to be employed in the drudgery of elementary instruction.
[I utter these sentiments from no feelings of private
friendship to that estimable philosopher, to whom it
is my regret to be almost unknown, and whose modest
and retiring merit, I may, perhaps, have the misfortune
to offend by these remarks. But Mr. Dalton was
of no party; had he ever moved in that vortex which
has brought discredit, and almost ruin, on the Royal
Society of England;—had he taken part with
those who vote to each other medals, and, affecting
to be tired of the fatigues of office, make to each
other requisitions to retain places they would be
most reluctant to quit; his great and splendid discovery
would long since have been represented to government.
Expectant mediocrity would have urged on his claims
to remuneration, and those who covered their selfish
purposes with the cloak of science, would have hastened
to shelter themselves in the mantle of his glory.—But
the philosopher may find consolation for the tardy
approbation of that Society, in the applause of Europe.
If he was insulted by their medal, he escaped the
pain of seeing his name connected with their proceedings.]
Where would have been the military renown of England,
if, with an equally improvident waste of mental power,
its institutions had forced the Duke of Wellington
to employ his life in drilling recruits, instead of
planning campaigns?
If we look at the fact, we shall find
that the great inventions of the age are not, with
us at least, always produced in universities.
The doctrines of “definite proportions,”
and of the “chemical agency of electricity,”—
principles of a high order, which have immortalized
the names of their discoverers, —were not
produced by the meditations of the cloister:
nor is it in the least a reproach to those valuable
institutions to mention truths like these. Fortunate
circumstances must concur, even to the greatest, to
render them eminently successful. It is not
permitted to all to be born, like Archimedes, when
a science was to be created; nor, like Newton, to
find the system of the world “without form and
void;” and, by disclosing gravitation, to shed
throughout that system the same irresistible radiance
as that with which the Almighty Creator had illumined
its material substance. It can happen to but
few philosophers, and but at distant intervals, to
snatch a science, like Dalton, from the chaos of indefinite
combination, and binding it in the chains of number,
to exalt it to rank amongst the exact. Triumphs
like these are necessarily “few and far between;”
nor can it be expected that that portion of encouragement,
which a country may think fit to bestow on science,
should be adapted to meet such instances. Too
extraordinary to be frequent, they must be left, if
they are to be encouraged at all, to some direct interference
of the government.
The dangers to be apprehended from
such a specific interference, would arise from one,
or several, of the following circumstances:—That
class of society, from whom the government is selected,
might not possess sufficient knowledge either to judge
themselves, or know upon whose judgment to rely.
Or the number of persons devoting themselves to science,
might not be sufficiently large to have due weight
in the expression of public opinion. Or, supposing
this class to be large, it might not enjoy, in the
estimation of the world, a sufficiently high character
for independence. Should these causes concur
in any country, it might become highly injurious to
commit the encouragement of science to any department
of the government. This reasoning does not appear
to have escaped the penetration of those who advised
the abolition of the late Board of Longitude.
The question whether it is good policy
in the government of a country to encourage science,
is one of which those who cultivate it are not perhaps
the most unbiassed judges. In England, those
who have hitherto pursued science, have in general
no very reasonable grounds of complaint; they knew,
or should have known, that there was no demand for
it, that it led to little honour, and to less profit.
That blame has been attributed to
the government for not fostering the science of the
country is certain; and, as far as regards past administrations,
is, to a great extent, just; with respect to the present
ministers, whose strength essentially depends on public
opinion, it is not necessary that they should precede,
and they cannot remain long insensible to any expression
of the general feeling. But supposing science
were thought of some importance by any administration,
it would be difficult in the present state of things
to do much in its favour; because, on the one hand,
the higher classes in general have not a profound
knowledge of science, and, on the other, those persons
whom they have usually consulted, seem not to have
given such advice as to deserve the confidence of
government. It seems to be forgotten, that the
money allotted by government to purposes of science
ought to be expended with the same regard to prudence
and economy as in the disposal of money in the affairs
of private life.
[Who, for instance, could have advised
the government to incur the expense of printing seven
hundred and fifty copies of the Astronomical
Observations made at Paramatta, to form a third part
of the Philosophical Transactions for 1829, whilst
of the Observations made at the Royal Observatory
at Greenwich, two hundred and fifty copies only are
printed?
Of these seven hundred and fifty copies,
seven hundred and ten will be distributed to members
of the Royal Society, to six hundred of whom they
will probably be wholly uninteresting or useless;
and thus the country incurs a constantly recurring
annual expense. Nor is it easy to see on what
principle a similar destination could be refused for
the observations made at the Cape of Good Hope.]
To those who measure the question
of the national encouragement of science by its value
in pounds, shillings, and pence, I will here state
a fact, which, although pretty generally known, still,
I think, deserves attention. A short time since
it was discovered by government that the terms on
which annuities had been granted by them were erroneous,
and new tables were introduced by act of Parliament.
It was stated at the time that the erroneous tables
had caused a loss to the country of between two and
three millions sterling. The fact of the sale
of those annuities being a losing concern was long
known to many; and the government appear to have been
the last to be informed on the subject. Half
the interest of half that loss, judiciously applied
to the encouragement of mathematical science, would,
in a few years, have rendered utterly impossible such
expensive errors.
To those who bow to the authority
of great names, one remark may have its weight.
The MECANIQUE COELESTE, [The first volume of the
first translation of this celebrated work into our
own language, has just arrived in England from—America.]
and the THEORIE ANALYTIQUE des PROBABILITES,
were both dedicated, by Laplace, to Napoleon.
During the reign of that extraordinary man, the triumphs
of France were as eminent in Science as they were
splendid in arms. May the institutions which
trained and rewarded her philosophers be permanent
as the benefits they have conferred upon mankind!
In other countries it has been found,
and is admitted, that a knowledge of science is a
recommendation to public appointments, and that a
man does not make a worse ambassador because he has
directed an observatory, or has added by his discoveries
to the extent of our knowledge of animated nature.
Instances even are not wanting of ministers who have
begun their career in the inquiries of pure analysis.
As such examples are perhaps more frequent than is
generally imagined, it may be useful to mention a
few of those men of science who have formerly held,
or who now hold, high official stations in the governments
of their respective countries.
Country. Name.
Department of Public Office.
Science.
France .. Marquis Laplace1
Mathematics President of the
Conservative
Senate.
France .. M.Carnot
Mathematics Minister of War.
France .. Count Chaptal2
Chemistry Minister of the
Interior.
France ..  Baron Cuvier[3] Comparative Minister of
Anatomy, Public
History Instruction
Prussia..  Baron Humboldt Oriental Ambassador
Languages to England
Prussia.. Baron Alexander
The celebrated Chamberlain to
Humboldt Traveller the
King of
Prussia
Modena . Marquis Rangoni4
Mathematics Minister of
Finance
and
of
Public
Instruction,
President
of
Italian
Academy
of
Forty.
Tuscany . Count Fossombroni
Mathematics Prime Minister
[5] of
the Grand Duke
of
Tuscany.
Saxony .. M. Lindenau6
Astronomy Ambassador.
[1] Author of the MECANIQUE COELESTE.
[2] Author of TRAITE de CHIMIE APPLIQUE AUX arts.
[3] Author of LECONS D’ANATOMIE COMPAREE—RECHERCHES
SUR OSSEMENS FOSSILES &c. &c. [4] Author of MEMORIA
SULLE FUNZIONI GENERATRICI, Modena, 1824, and of various
other memoirs on mathematical subjects. [5] Author
of several memoirs on mechanics and hydraulics, in
the Transactions of the Academy of Forty. [6] Author
of tables BAROMETRIQUES, Gotha, 1809—TABULAE
VENERIS, NOVAE et CORRECTAE, Gothae, 1810—INVESTIGATIO
NOVA ORBITAE A MERCURIO CIRCA SOLEM DESCRIPTAE, Gothae,
1813, and of other works.
M. Lindenau, the Minister from the
King of Saxony to the King of the Netherlands, commenced
his career as astronomer at the observatory of the
Grand Duke of Gotha, by whom he was sent as his representative
at the German Diet. On the death of the late
reigning Duke, M. Lindenau was invited to Dresden,
and filled the same situation under the King of Saxony;
after which he was appointed his minister at the court
of the King of the Netherlands. Such occurrences
are not to be paralleled in our own country, at least
not in modern times. Newton was, it is true,
more than a century since, appointed Master of the
Mint; but let any person suggest an appointment of
a similar kind in the present day, and he will gather
from the smiles of those to whom he proposes it that
the highest knowledge conduces nothing to success,
and that political power is almost the only recommendation.