Although this differentiation of types was based ostensibly upon

displacement or tonnage, in reality it was formed on a more scientific

basis. Admiral Sir George Elliot demonstrated, in 1867, that the real

basis was not a rule of size, but a _law of safety_, similar to that

which operates in the natural world; a law so important that it should

under no circumstances be disregarded. He showed that sailing ships

conformed to this law. He showed that the reduction of a vessel’s

size, for instance, endowed her with smaller draught and an increased

speed; that the dispensing with one quality automatically gave another

in compensation; and that thus the weakly armed vessel always possessed

the means, if not to fight, to escape from capture.[173]

With the coming of steam and armour, all this was changed. Size had

now no inherent disability; on the contrary, the larger the ship the

greater the horse-power which could be carried in her, the greater her

probable speed and sea endurance. The small ship had no advantages.

The old classification had clearly broken down. The first ironclads,

the _Warrior_ and her successors, although of frigate form, belonged

to no particular class; they were of a special type intended to cope

with the most powerful ships afloat or projected; and subsequent ships

were designed with the same end in view. These ships being faster as

well as more powerful than those of a smaller size, there was no object

in attempting to build others of a frigate class for the purpose of

outsailing them.

As material developed, and as the warship became more and more

obviously a compromise between conflicting qualities, differentiation

of types was once more seen to be necessary. Attempts were made to

classify on the bases of displacement, material, defensive and motive

power, service, system of armament. In the end British construction

divided itself into two categories: armoured and unarmoured vessels.

And each of these categories was subdivided into classes of ships

analogous to those of the old sailing ships.

But, during the transitional period 1860 to 1880, when armour and

iron ships, steam engines, rifled guns, and fish torpedoes, were all

in their infancy and subject to the most rapid development, no such

classification was recognized. The circumstances of the Crimean War,

with the adoption of armour and the sudden and enormous growth in the

unit of artillery force which took place soon afterwards, led to the

first differentiation of ironclads, into ocean-going and coast-defence

vessels. We have already noted this fact. We have seen how, especially

to the lesser Powers, the turreted monitor appeared to offer an

economical and effective form of naval force; and we have noted how, in

America, the evolution proceeded in the opposite direction, viz. from

coast-defence monitor to ocean-going turret ship. This differentiation

prevailed for many years. It prevailed even in the British navy, in

spite of its being in full opposition to the offensive principle on

which that navy had always based its policy.

Later, although convinced that in any war involving this country and

its colonies the chief combats must be fought in European waters, naval

opinion saw the necessity for a type of ship designed primarily for the

defence and attack of commerce: a speedy, lightly armed and protected

type capable of overhauling and injuring a weaker, or of escaping from

a more powerful enemy. The American War of ’62, in which no general sea

action was fought, gave the impulse to the construction of the type

which eventually became known as the _cruiser_. Vessels were built in

’63 expressly to overtake Confederate vessels and drive from the seas

the Southern mercantile marine. These vessels were to annihilate the

enemy’s commerce without being drawn themselves to take part in an

engagement, unless in very favourable circumstances. Several such ships

were built. The first, the _Idaho_, was a complete failure; the next

attempt was little more successful; and those subsequently constructed,

the _Wampanoag_ class, the finest ships of the type which existed at

the close of the war, which were designed for 17 knots and to carry

sixteen 10- or 11-inch smooth-bore cast-iron guns on the broadside and

a revolving 60-pounder rifle in the bows, suffered from miscalculations

in design and from the weakness peculiar to long and heavily weighted

timber-built ships. “These pioneers of the type,” says Brassey, “were

followed, both in England and in France, by vessels believed by the

builders of their respective countries to be better adapted for the

work for which they were designed.”

At first England and France had built and appropriated small ironclads

to this secondary service; in France the _Belliqueuse_, in England

the _Pallas_, were designed to this end. But in ’66 the first ship of

the cruiser type was built for the British navy: the _Inconstant_,

of Sir Edward Reed’s design, an iron-built, fine-lined vessel with a

speed of 16 knots and a large coal capacity. She was followed by the

corvettes _Active_ and _Volage_, and then, in ’73, by the _Shah_ and

_Raleigh_. Experience with the early cruisers showed the advantages

of large displacement. “The greater number of the American corvettes

had now been launched. A trial of one of them showed that the high

hopes which had been entertained of their performance were fallacious.

It now appeared no longer necessary that the English corvettes

should possess such extraordinary power and speed, qualities which

necessarily required very large displacements. The Admiralty, however,

still believing in the wisdom of the policy which they had previously

adopted, decided to follow a totally different course from that which

all other navies had been compelled by financial considerations to

follow. So far from diminishing the size of their ships, increased

displacement was given to the new designs.”[174] Full sail power was

still required, for the high-power steam engine used by the cruiser for

fighting purposes was most uneconomical. The _Raleigh_, for instance,

burned her six hundred tons of coal in less than 36 hours, at full

speed.

But after the _Raleigh_ came a slight reaction. With a view to economy

a smaller type of vessel was designed, the smallest possible vessel

which could be contrived which would possess a covered-in gun deck

in combination with other features considered essential in a frigate

class; the result was the _Boadicea_ or the _Bacchante_ class. In the

late ’seventies size again increased, and the _Iris_ and _Mercury_,

unsheathed vessels of steel, with coal-protection for their water-line

and extended watertight subdivision of the hull, were laid down.

From the unarmoured, unprotected cruiser was in time evolved, by the

competition of units, the armoured cruiser. Russia led the way. Her

_General-Admiral_, the first belted cruiser, was built to compete with

the _Raleigh_ and _Boadicea_. Then England designed the _Shannon_,

partially belted and with protective deck and coal protection, to

outmatch her. Eventually the cleavage came, and the cruisers were

themselves divided into two or more classes, in accordance with their

duties, size and fitness for the line of battle.

* * * * *

Of the development of torpedo craft this is not the place to write;

although the torpedo was fast growing in efficiency and importance, it

had not, before 1880, become the centre and cause of a special craft

and a special system for its employment in action. But after that

date the creation of torpedo flotillas began to exercise a marked and

continuous effect upon the evolution of the ironclad. The fish-torpedo,

improving at a phenomenal rate in the first years of its development,

and at first esteemed as of defensive value and as a counter to the

ram, became, after 1880, an offensive weapon of the first importance.

The ram, already suspected of being placed too high in popular

estimation, suffered a decline; the danger of its use in action was

emphasized by naval officers, whose opinion alone was decisive: its

use, as an eminent tactician explained, reduced the chances of battle

to a mere toss-up, since there was “only half a ship’s length between

ramming and being rammed.” The gun developed in power, in range, and

accuracy; but not (up to the end of the century) at so great a rate

as its rival, the torpedo. The steam engine affected all weapons

by its continuous development. It depressed the ram, enhanced the

importance of the gun, and endowed the torpedo with a large accession

of potential value in placing it, in its special fast sea-going craft,

within reach of the battleship; moreover, it enabled the cruiser to

regain its old supremacy of speed over the line-of-battle unit. Armour,

quick-firing guns, secondary armament, watertight construction, net

defence, all influenced the development of the various types. But it

was the torpedo, borne into action by the high-speed steam engine,

which had the greatest effect on naval types in the last two decades of

the century, and which at one time bid fair to cause a constructional

revolution as great as that of 1860. The torpedo, according to a

school of French enthusiasts, had destroyed the ironclad battleship

and dealt a heavy blow at English sea power by paving the way for an

inexpensive navy designed for a _guerre de course_. The ironclad was

dead, they cried, and might as well be placed in the Louvre museum

along with the old three-deckers! In Italy and Germany, too, the

logic of facts seemed to point to a vast depreciation in the power of

existing navies: the fate of the expensive ironclad seemed assured, in

the presence of small, fast, sea going torpedo-boats. Still, it was

noticed, England laid down battleships. True; this was quite in keeping

with her machiavellian policy. Had she not resisted--“not blindly, but

with a profound clairvoyance”--all the inventions of the century? Had

she not successfully baulked the development of Fulton’s mines, steam

navigation, the shell gun, and the ironclad itself? And, now that steam

had made the blockade impossible and the torpedo had attacked the

ironclad effectually, making sea-supremacy an empty term, could not

the British Empire be destroyed by taking the choice of weapons out of

England’s hands?

The prospect was alluring. Yet the ironclad survived the menace

and remained the standard unit of naval power. Expensive, designed

with several aims and essentially complex,--a compromise, like man

himself,--it could not be replaced by a number of small, cheap,

uni-functional vessels, each constructed for one sole and special

purpose, without loss of efficiency and concentration of power.

Nor could it be supplanted by a type which, like the sea-going

torpedo-boat, could only count on an ascendancy over it in certain

moments of its own choosing--for example, at night-time or in a fog. To

every novel species of attack the ironclad proved superior, calling to

its aid the appropriate defensive measures.

FOOTNOTES

[1] Sir Harry Nicolas: _History of the Royal Navy_.

[2] The greatest authoritative works on ancient and medieval shipping,

it should be mentioned, are the _Archéologie Navale_ and the _Glossaire

Nautique_ of M. Jal, published in 1840 and 1848 respectively.

[3] Corbett: _Drake and the Tudor Navy_.

[4] Corbett.

[5] Oppenheim.

[6] Corbett.

[7] Navy Records Soc.: Edited by Sir John Laughton.

[8] Cases were known where ships, unfit for sea, completed their voyage

in safety, to fall to pieces immediately on being taken into dock and

deprived of that continual support which they derived from the water

when afloat (_Charnock_).

[9] Chief-constructor D. W. Taylor, U.S.N.

[10] Creuze: _Shipbuilding_.

[11] Manwayring.

[12] Navy Records Soc.: 1918. _Edited by_ W. G. Perrin, Esq., O.B.E.

[13] Captain John Smith’s _Sea Man’s Grammar_ also appeared in the

early part of this century.

[14] Sir J. Knowles, F.R.S.

[15] Willett: _Memoirs on Naval Architecture_.

[16] It has been suggested that the restricted draught given to the

Dutch ships, owing to the shallowness of their coast waters, had the

result of necessitating a generous breadth, and therefore made them

generally stiffer than vessels of English construction.

[17] Derrick in his Memoirs refers to this ship us having been built of

burnt instead of kilned timber, and as having special arrangements for

circulating air in all its parts.

[18] Charnock.

[19] Colomb: _Sea Warfare_.

[20] Creuze: _Papers on Naval Architecture_.

[21] Even the scientific Sir William Petty cast a veil of mystery

over his processes. “I only affirm,” he writes, “that the perfection

of sailing lies in my principle, _finde it out who can!_” (See Pepys’

Diary for 31st July, 1663.)

[22] Creuze: _Shipbuilding, Encycl. Brit._, 7th Edition, 1841. It

should be mentioned that the work of Dr. Colin McLaurin, of Edinburgh,

in giving a mathematical solution for the angles at which a ship’s

sails should be set, had received considerable attention on the

Continent.

[23] See a paper by Mr. Johns, R.C.N.C., in _Trans. I.N.A._ 1910.

[24] Willett: _Memoirs on Naval Architecture_.

[25] At the beginning of the eighteenth century the English first

rates carried 100 guns. The second rate comprised two classes: (1) a

three-decker of 90; (2) a two-decker of 80. Ships of these rates were

few in number and very expensive. The bulk of our fleets consisted of

third rates: two-deckers of 70 guns in war and 62 in peace time and on

foreign stations (_Charnock_).

[26] Sir C. Knowles: _Observations on Shipbuilding_.

[27] _Letters of Sir Byam Martin_: N.R. Soc.

[28] Sir C. Knowles: _Observations on Shipbuilding_.

[29] In 1784 Thomas Gordon published a treatise entitled _Principles

of Naval Architecture_, drawing attention to the work of the French

scientists and advocating increased length and breadth, finer lines,

and a more systematic disposition of materials, for improving the

strength and seaworthiness of our royal ships. No notice was taken of

his communications to Lord Sandwich, but there is no evidence that his

predicted fate overtook him: “to be traduced as an innovator theorist,

and visionary projector, as has been the fate of most authors of useful

discoveries in modern times, particularly in Britain.”

“The bigotry of old practice,” recorded Mr. Willett in 1793, “opposes

everything that looks like innovation.”

[30] Fincham says their armament was established as, thirty 32-pounders

on the lower deck, thirty 24-pounders on the middle deck, thirty-two

18-pounders on the upper deck, and on the quarter-deck and forecastle

eighteen 12-pounders.

[31] James: _Naval History_.

[32] _Letters of Sir Byam Martin_: N.R. Soc.

[33] Sharp: _Memoirs of Rear-Admiral Sir W. Symonds_.

[34] Hannay: _Ships and Men_. This formula was known before, for

Bushnell mentions it in his _Compleat Shipwright_ of 1678.

[35] Sharp: _Memoirs of Admiral Sir W. Symonds_.

[36] E. J. Reed: _On the Modifications to Ships of the Royal Navy_.

[37] _Ibid._

[38] Lieut.-Col. H. W. L. Hime: _The Origin of Artillery_.

[39] In the _Histoire d’Artillerie_ of MM. Reinaud and Favé long

excerpts from Bacon are examined, from which it appears that he

suggested the use of gunpowder in military operations. Gibbon says:

“That extraordinary man, Friar Bacon, reveals two of the ingredients,

saltpetre and sulphur, and conceals the third in a sentence of

mysterious gibberish, as if he dreaded the consequences of his own

discovery.”

[40] Lieut. H. Brackenbury, R.A.: _Ancient Cannon in Europe_. Vol. IV

and V of Proc. R.A.I.

[41] Schmidt: _Armes à feu portatives_.

[42] Sir Harry Nicolas, in his _History of the Royal Navy_, attributes

the documents to the reign of Edward III: an error of more than seventy

years. The mistake is exposed by a writer in Vol. XXVI of _The English

Historical Review_, in an article on “Firearms in England in the

Fourteenth Century.” The writer also gives the English records relating

to the use of firearms at Cressy.

[43] Brackenbury.

[44] The secrecy of the early writers of Italy on gunnery and kindred

subjects has been remarked on by Maurice Cockle in his _Bibliography of

Military Books_. He attributes it to two motives: fear that the Infidel

(the Turk) might profit by the knowledge otherwise gained, and a desire

to keep the secrets of the craft in the hands of their countrymen,

whose knowledge and assistance the foreigner would then be forced to

purchase.

[45] _The Great Cannon of Muhammad II_: Brig.-Gen. J. H. Lefroy, R.A.,

F.R.S. Vol. VI of Proc. R.A.I.

[46] Ascribing the deliverance of Constantinople from the Saracens in

the two sieges of A.D. 668 and 716 to the novelty, the terrors, and

the real efficacy of Greek fire, Gibbon says: “The important secret

of compounding and directing this artificial flame was imparted by

Callinicus, a native of Heliopolis in Syria, who deserted from the

service of the caliph to that of the emperor. The skill of a chemist

and engineer was equivalent to the succour of fleets and armies.”

For the story of the manner in which its mystery was guarded at

Constantinople, of its theft by the Infidel, and of the use he made of

it against the Christian chivalry at the crusades, see Chapter LII of

_The Decline and Fall of the Roman Empire_.

[47] Grose: _Military Antiquities_.

[48] Hayley’s MSS.: quoted by M. A. Lower.

[49] Oppenheim.

[50] Oppenheim.

[51] Corned powder was graded in France in the year 1540 into three

sizes by means of sieves which varied with the types of guns for which

they were intended (see Hime: _Origin of Artillery_). By the end of the

century the manufacture had evidently improved in this country. “Some

do make excellent good corn powder, so fine, that the corns thereof are

like thime seed,” wrote Thos. Smith in his _Art of Gunnery_, A.D. 1600.

[52] Oppenheim.

[53] Bourne: _The Art of Shooting in Great Ordnance_, 1587.

[54] Sir J. K. Laughton: _Armada Papers, N.R.S._

[55] Smith demolished, to his own satisfaction, a theory current

that some molecular movement of the metal took place at the moment

of gunfire. “I asked the opinion of a soldier, who for a trespass

committed was enjoined to ride the canon, who confidently affirmed, he

could perceive no quivering of the metal of the piece, but that the air

which issued out of the mouth and touch-hole of the piece did somewhat

astonish and shake him.”

[56] The advantages of large calibres had been appreciated in the

previous century. Sir Richard Hawkins, in his _Observations_, printed

in 1593, compares the armament of his own ships with that of his

Spanish opponents, and says: “Although their artillery were larger,

weightier, and many more than ours, and in truth did pierce with

greater violence; yet ours being of greater bore, and carrying a

weightier and greater shot, was of more importance and of better effect

for sinking and spoiling.”

[57] Oppenheim.

[58] A significant view of the attitude of these professionals toward

any innovation in gunnery material is afforded by the entry of Mr.

Pepys in his diary for the 17th April, 1669.

[59] An anonymous writer in the _Pall Mall Gazette_.

[60] Le Sieur Malthus, gentil-homme Anglois, Commissaire Général des

Feux et Artifices de l’Artillerie de France, Capitaine General des

Sappes et Mines d’icelle & Ingeniéur és Armées du Roy, published his

_Pratique de la Guerre_ in 1668. This notable but almost-forgotten

artillerist introduced the use of mortars and bombs into France, in

1637. He was killed by a musket ball at the siege of Gravelines, as he

elevated himself above the rampart of a trench in order to watch the

effect of a bomb (St. Remy: _Mémoires_).

[61] This account is taken from _Historical Notes on Woolwich_, Lieut.

Grover, R.E. (Proc. R.A.I., Vol. VI).

[62] Le Blond: _Traité de l’Artillerie_, 1743.

[63] Lieut.-Gen. Sir William Congreve, Bart., was, as Captain Congreve,

appointed in 1783 to the control of the Royal Laboratory at Woolwich.

Sent in ’79 to Plymouth, to examine the gunpowders of H.M. ships in

consequence of the complaints of Admiral Barington, he found only

four serviceable barrels in the whole fleet. The gross frauds then

brought to light led to the formation of the Government establishment

at Waltham Abbey. His son was the inventor of the Congreve sight and

rocket.

[64] Gen. Sir Thomas Blomefield, Bart., who started his service

career as a midshipman, commanded a bomb vessel under Rodney at the

bombardment of Havre in 1759, and was present at Quiberon. After varied

service abroad he was appointed, in 1780, Inspector of Artillery and

of the Brass Foundry. “Never was the need of military supervision

over military manufactures more apparent than at this period. The

guns supplied to the naval and military forces had degenerated to the

lowest point in quality. Bursts were of frequent occurrence, and would

doubtless have been much more frequent if the roguery of contractors in

gunpowder had not kept pace with the roguery of contractors in guns....

From this period dates the high character of British cast iron and

brass ordnance.”

[65] Favé.

[66] The author of the _Études sur l’Artillerie_ places emphasis on

the importance of the substitution of cast iron for stone projectiles,

as augmenting the power of artillery. Stone balls broke to pieces on

impact with masonry, and were of small destructive power except when

in large mass, as projected from the largest bombards. He claims the

introduction of iron shot, the use of trunnions for elevating, and the

standardization of calibres, for the French artillery of Charles VIII,

who in 1495 descended on Italy.

[67] Favé.

[68] Lieut.-Col. Hime, R.A.: _The Progress of Field Artillery_.

[69] Owen: _Lectures on Artillery_.

[70] Whewell: _History of the Inductive Sciences_.

[71] _Encycl. Brit._, 11th Edition.

[72] This project, however, is mentioned of an engine called by him “a

semi-omnipotent engine,” the subject of the 98th invention: “an engine

so contrived, that working the _Primum mobile_ forward or backward,

upward or downward, circularly or cornerwise, to and fro, straight,

upright or downright, yet the pretended operation continueth and

advanceth, none of the motions above-mentioned hindering, much less

stopping the other.”

This engine is obviously not the same as that described as the

sixty-eighth invention.

[73] A well-known story, quoted at length in the Memoirs of Sir John

Barrow, connected de Caus with the Marquis of Worcester in dramatic

fashion. The Marquis was being conducted through the prison of the

Bicêtre in Paris when his attention was attracted by the screams of

an old madman who had made a wonderful discovery of the power of

steam, and who had so importuned Cardinal Richelieu that he had been

incarcerated as a nuisance.

“This person,” said the insolvent Lord Worcester after conversing with

him, “is no madman; and in my country, instead of shutting him up, they

would heap riches upon him. In this prison you have buried the greatest

genius of your age.”

The fable, and its exposure by a French writer, M. Figuier, are

described in Dirck’s book.

[74] Millington: _Natural Philosophy_.

[75] Sir E. D. Lawrence: _Steam in Relation to Cornwall_.

[76] Enouf: _Papin, sa vie et son œuvre_.

[77] On the evidence of a picture purporting to represent the first

Newcomen engine, in which mechanisms are shown for operating the cocks

automatically, an attempt has been made to prove that the manipulated

cocks were a figment and the story of Humphrey Potter a myth. The

iconoclast has not been successful. The evidence that the first engines

were hand-controlled is very general (see Galloway’s _Steam Engine and

Its Inventors_).

[78] At this time the corpuscular theory of heat still held the field.

“Caloric,” or the matter of heat, was supposed to be a substance which

could be imparted to or abstracted from a body, which had the property

of augmenting its bulk, but not its weight, by setting its particles at

a greater or less distance from one another.

[79] _Encycl. Brit._, Eleventh Edition.

[80] A text-book published a few years before Robins’ birth (Binnings’

_Light to the Art of Gunnery_, 1689) told how a certain profane and

godless gunner, Cornelius Slime, was carried off by the devil before

the eyes of the astonished onlookers!

[81] Whewell: _Hist. of the Inductive Sciences_.

[82] Dr. Halley: _Phil. Trans._, 1686.

[83] How strange and almost incredible this phenomenon appeared to

people long after Robins’ time, may be seen from the manner in which

Ezekiel Baker, one of the principal London gunmakers and the contractor

who supplied the rifles with which the Rifle Brigade was equipped in

the year 1800, poured gentle sarcasm on the account of this experiment.

In his book on _Rifle Guns_, published in 1825, he can only assign the

cause of the deflection to “some peculiar enchantment in the air.”

“Or,” he continues, “with all my practice I have yet much to learn in

guns, and the effects of powder and wind upon the ball in its flight.”

[84] Of the superstitious awe with which an iron field-piece was

regarded by the highlanders in ’45, and of its small material value in

the field, a note will be found in the appendices to Scott’s _Waverley_.

[85] Mr. Patrick Miller, who is mentioned in a later chapter as

builder of the first successful steam-propelled vessel, was also an

enthusiastic artillerist. In a memorandum to the Select Committee of

the House of Commons, appointed in 1824 to consider the claims of

various inventors of steam-vessels, a Mr. Taylor gave the following

evidence: “I found him (Mr. Miller) a gentleman of great patriotism,

generosity, and philanthropy; and at the same time of a very

speculative turn of mind. Before I knew him (1785) he had gone through

a very long and expensive course of experiments upon artillery of which

the carronade was the result.”

[86] On April 20th, 1669, Mr. Pepys recorded in his diary a

visit to “the Old Artillery-ground near the Spitalfields” to see

a new gun “which, from the shortness and bigness, they do call

Punchinello.” Tried against a gun of double its own length, weight,

and powder-charge, Punchinello shot truer to a mark and was easier

to manage and had no greater recoil--to the great regret of the old

gunners and officers of the ordnance that were there.

The gallant inventor offered Mr. Pepys a share in the profits; there

seemed great promise that the king would favour it for naval use.

“And,” adds Pepys, “no doubt but it will be of profit to merchantmen

and others to have guns of the same form at half the charge.”

[87] James: _Naval History_.

[88] The carrying of _sham_ guns among their armament was not unknown

in the case of vessels which boasted a reputation for their superior

speed and sailing qualities (vide _Bentham Papers_).

[89] Captain Simmons, R.A.

[90] The carriage thus formed out of a baulk or trunk appears to have

been known as a trunk carriage. Norton describes the cannon-periers as

being mounted on “trunk carriages provided with four trucks.”

[91] Oppenheim.

[92] It was evidently a practice at this period to vary the diameter

of the trucks to suit the ship’s structure and the height of the

gun-ports. “Be careful,” says Bourne in 1587, “that the trucks be not

too high, for if the trucks be too high, then it will keep the carriage

that it will not go close against the ship’s side.... And the truck

being very high, it is not a small thing under a truck that will stay

it, etc. etc. And also, if that the truck be too high, it will cause

the piece to have the greater reverse or recoil. Therefore, the lower

that the trucks be, it is the better.”

Bourne also mentions, in the same book, the _Art of Shooting in Great

Ordnance_, as a curious invention of a “high Dutchman” a gun mounting

so devised as to allow the piece to rotate through 180° about its

trunnions for loading.

[93] Manwayring: _Sea-Man’s Dictionary_.

[94] Oppenheim.

[95] Hutchinson: _Naval Architecture_.

[96] In the margin of the copy of _The Art of Gunnery_, Thos. Smith,

A.D. 1600, in the library of the R.U.S.I. in Whitehall, is the

following note, written in legible seventeenth-century script: “Some

make a device to discharge at a distance by a long string, fixed to a

device like a cock for a gun with a flint or like a musket cock with a

match.”

In the same work are instructions as to firing in a wind, when the

train of powder might be blown from the vent before the linstock could

be applied. The gunner was to form a clay rampart, a sort of tinker’s

dam, on the metal of the piece on the windward side of the touch-hole.

[97] On this Sir John Laughton remarked: “The exercise, so born,

continued as long as the old men-of-war and the old guns--‘Ships

passing on opposite tacks; three rounds of quick firing’” (_Barham

Papers_, N.R. Soc.).

[98] A form of sight for use with ordnance was described by Nathaniel

Nye, in his _Art of Gunnery_, of 1674. It consisted of a lute-string

and a movable bead, with a scale opposite the latter graduated in

degrees and inches.

[99] In Lloyd and Hadcock’s _Artillery_ an extract from a letter

written in 1801 by Lord Nelson relative to a proposal to use gun-sights

at sea is given. The letter is unfavourable to the invention on the

ground that, as ships should always be at such close quarters with

their enemies that missing becomes impossible, such appliances would be

superfluous. But in this connection the observation is made that, with

the degree of accuracy of guns up to the nineteenth century a rough

“line of metal” aim was probably all that was justified, in the matter

of sighting. In other words, with one element of the system (the gun)

so very inaccurate, nothing was to be gained by increasing the accuracy

of another element (the sight) to a disproportionate degree. With

increasing accuracy of the gun, increasing accuracy of sight was called

for.

[100] In Vol. IV of the _Proceedings of the Royal Artillery

Institution_, in an article by General Lefroy, an order is quoted

showing that trials were made of firing shells horizontally by the

Royal Artillery in Canada in 1776. The author also shows that the

trials made by the French in 1784-6 were brought to the notice of Lord

Nelson.

In Vol. V is the following extract: “Experiments were made on

Acton Common in 1760, to fire coehorn and royal shells from 12-and

24-pounders, in order to be applied to the sea service; but as the

shells were found frequently to burst in the guns, it was thought too

hazardous to introduce them on board ships of war.”

[101] The first public demonstration was given by Lieut. Shrapnel,

R.A., before the G.O.C., Gibraltar, in the year 1787.

[102] Simmons: _Effect of Heavy Ordnance_, 1837.

[103] James: _Naval History_.

[104] A short review of both books is given in the _Papers on Naval

Architecture_, edited by Morgan and Creuze, 1829.

[105] See Hugo’s _Toilers of the Sea_.

[106] “As for guns,” wrote Fuller in his _Worthies of England_,

comparing the relative merits of the inventions of printing and

gunpowder, “it cannot be denied, that though most behold them as

instruments of cruelty; partly, because subjecting valour to chance;

partly, because guns give no quarter (which the sword sometimes doth);

yet it will appear that, since their invention, Victory hath not stood

so long a neuter, and hath been determined with the loss of fewer

lives.”

[107] At a later date this reduction in number of types of ordnance was

extended to cover land artillery. In ’62 the French brought down the

number of different calibres to four: one for the field, one for the

siege, and two (the 30-and 50-pounders) for the navy.

[108] Dahlgren: _Shells and Shell-Guns_, 1856.

[109] By this time Denmark, Holland, Russia and Sweden had all

recognized the possibilities of shell guns, and had adopted them in

greater or less degree. By this time, too, France actually possessed

more steam war-vessels than we had ourselves.

[110] Simmons: _Effects of Heavy Ordnance_.

[111] The crossbow was looked upon as a weapon unworthy of a brave

man; a prejudice which afterwards prevailed with respect to fire-arms

(Hallam: _Middle Ages_).

[112] The Hon. T. F. Fremantle: _The Book of the Rifle_.

[113] _Le Développement des Armes à Feu_, 1870.

[114] In this aspect of the origin of the grooves there is a curious

analogy between the rifle-barrel and the drill used in machine tools.

In the primitive drill the shank is appreciably less in diameter than

the hole cut by the drill, so that the drillings can easily work their

way out of the hole. When, however, it was desired to make the shank

almost of the same diameter as the hole, so as to form a guide, it was

necessary to flute it with two grooves or more to allow the drillings

to get away. In the course of its evolution these grooves became spiral.

[115] Quoted in _The Book of the Rifle_ from Schmidt’s _Armes à Feu

Portatives_, 1889.

[116] Delvigne: _Notice historique des armes rayées_.

[117] Beaufoy: _Scloppetaria_.

[118] A paragraph in Beaufoy’s _Scloppetaria_ (1808) shows the complete

misconception under which its author laboured as to the function of

rifling. Just as the air turns a windmill or a shuttlecock (he says),

so, after an indented ball quits its rifled barrel the air, forced

spirally along its grooves, will cause the ball to turn. In short, he

regarded the spiral grooves of a barrel as being of no further utility,

with respect to the generating of the rotary motion, than as an easy

way of giving the ball the requisite indentations.

[119] Fremantle: _The Book of the Rifle_.

[120] Captain A. Walker: _The Rifle_, 1864.

[121] At the beginning of the century Ezekiel Baker had noted that “a

wadding in the shape of an acorn cup placed on the powder, and the ball

put on the top of the cup, will expand the cup and fill the bore--and

of course the windage will be much diminished.”

[122] Mention must be made of an important prior development of the

elongated bullet which had been carried out by General Jacob in India,

quite independently of French research. General Jacob conducted, in an

altogether scientific manner, experiments the successful results of

which were communicated by him to the home government on more than one

occasion. The importance of his discoveries remained unrecognized, and

the value of his improvements was lost to this country.

[123] In military circles the possibilities of the invasion of this

country had for some time been under discussion, in view of the

increasingly aggressive temper of the French. Interest in national

defence became general with the warning letter of the Duke of

Wellington which appeared in _The Times_ on the 9th January, 1847. In

’51 was held the Great Exhibition, and for a time opinion was less

agitated. The Exhibition, it was thought and hoped by numbers of

people, would inaugurate the millennium.

[124] This advantage of the rifled gun hod been fully appreciated

by Captain Norton. As early as 1832 he had conducted trials with

one-pounder rifled cannon, to confirm his belief that the projectile

would maintain its rotation during flight and hit the target

point-first (_Journal of R.U.S.I._, 1837).

[125] Commander R. A. E. Scott, R.N.: _Journal of R.U.S.I._, Vol. VI,

1862.

[126] Tennant: _The Story of the Guns_. This book gives in detail the

controversy which arose between the advocates of the Armstrong and the

Whitworth systems.

[127] _Edinburgh Review_, 1859. Quoted by Sir E. Tennant.

[128] The sudden and extraordinary development of rifled ordnance

which now took place had a revolutionary effect not only on naval

architecture and gunnery but on land fortification. In ’59 Sir William

Armstrong, giving evidence before a committee appointed by the War

Secretary, stated that he could attain with a specially constructed

gun a range of five miles. The statement made a sensation; for in the

presence of such a gun most of the existing defences of our dockyards

and depots were almost useless. A Commission on National Defence

was formed. It reported that new fortifications were necessary for

our principal arsenals, the fleet alone being insufficient for the

defence of ports. “The introduction of steam,” stated the report, “may

operate to our disadvantage in diminishing to some extent the value of

superior seamanship; the practice of firing shells horizontally, and

the enormous extent to which the power and accuracy of aim of artillery

have been increased, lead to the conclusion that after an action even

a victorious fleet would be more seriously crippled and therefore a

longer time unfit for service.” Thus the command of the Channel might

be temporarily lost. As steam facilitated invasion, the immediate

fortification of vital points on the South Coast was considered

necessary. In short, faith in the mobile fleet was temporarily

abandoned.

The recommendations of the Commission were carried out almost in their

entirety. In the case of Portsmouth, for instance, the reinforcement of

the Hilsea Lines, decided on only two years previously, was suspended

in favour of a defence of far greater radius--a circle of forts some of

which were designed to prevent an enemy from gaining possession, from

the land side, of Portsdown Hill, a ridge less than five miles from the

Dockyard and therefore a position from which, with the new artillery,

the Dockyard could be bombarded. A similar girdle of defences was given

to Plymouth.

[129] Commander R. A. E. Scott, R.N.

[130] Lloyd and Hadcock.

[131] Woodcroft: _Steam Navigation_, 1848.

[132] de la Roncière: _La Marine Française_.

[133] Woodcroft: _Steam Navigation_.

[134] Rigaud: _Early Proposals for Steam Navigation_.

[135] Enouf: Papin; _Sa Vie et Son Œuvre_.

[136] Quoted in Fincham’s _Naval Architecture_.

[137] Mr. Taylor’s evidence to Select Committee, 1824. Quoted in

Woodcroft’s _Steam Navigation_.

[138] Miller is said to have approached the Admiralty twice upon the

subject, and certainly he was keenly interested in naval affairs. A

generous tribute has been paid him by a friend whose name is honoured

in our naval annals: “I was unwearied,” says John Clerk of Eldin in

the preface of his Essay on Naval Tactics, published in 1804, “in

my attention to the many valuable experiments of the ingenious and

liberal-minded Mr. Patrick Miller of Dalswinton; to whom, whether in

shipbuilding or in constructing artillery, both musketry and great

guns, his country is more indebted than has hitherto been properly

acknowledged.”

[139] Dickinson: _Robert Fulton, Engineer and Artist_.

[140] Colden: _Life of Fulton_.

[141] _M. Marestier’s Report on Steam Navigation in the U.S.A._ (Morgan

and Creuze, 1826).

[142] _Fraser’s Magazine_, 1848.

[143] In his book _On Naval Warfare with Steam_, published thirty

years later, Sir Howard Douglas set out more clearly the case for

the strenuous development of steam navigation by this country, and

exposed one of the chief flaws in M. Paixhans’ argument. At that date

it was still the all-but-universal opinion in foreign countries that

the introduction of steam had rendered superiority in seamanship

of comparatively little importance in naval warfare. Sir Howard

Douglas showed that English superiority had spread to machine design,

construction and manipulation, and that if this country chose to exert

itself it could maintain its lead.

It is curious to note that not one of these three writers emphasises

the main disability under which France has actually suffered, viz. the

unsuitability of French coal as warship fuel and the distance of her

iron and coal mines from her chief shipbuilding centres.

[144] Briggs: _Naval Administrations_.

[145] A steam paddle-boat, named the _Lord Melville_ in honour of the

descendant of Charlotte Dundas, was then plying regularly between

London Bridge and Calais.

[146] _Memoirs of Sir John Barrow, Bart._

[147] Williams: _Life of Sir Charles Napier_.

[148] In 1835 a new department, of Royal Naval Engineers, was formed:

to consist of technically trained men to manage the machinery of steam

vessels. A uniform button was designed for them, and they were given

the rank of Warrant Officers. Up to this time the machinery had been

in charge of men who, for the most part, were “mere labourers”; and,

commanding officers being ignorant of mechanical engineering, extensive

fraud and waste had been practised, especially in connection with the

refitting of vessels by contractors (Otway: _Steam Navigation_).

[149] Reed: _On the Modifications to H.M. Ships in the XIXth century_.

[150] The strategic value of steam power in warfare was first

demonstrated by Lord John Hay in ’30. In the operations on the North

Coast of Spain “the opportune arrival of a reinforcement of fifteen

hundred fresh troops from Santander, by one steamer alone, despatched

the previous day from San Sebastian, a distance of a hundred miles,

for that express purpose, gave a decisive and important turn to the

transactions of that day” (Otway: _Steam Navigation_).

[151] Fincham.

[152] The author of this work, M. Paucton, in addition to discussing

the possibility of replacing the oar by the screw, threw out the

suggestion of its use for aerial flight. “Je sçais qu’on ne peut guère

manquer de faire rire, en voulant donner des aîles à un homme. Je sçais

que plusieurs personnes, qui out osé prendre l’effor dans les airs,

n’ont pas eu un meilleur succès que l’imprudent Icare.” Nevertheless,

it is incontestable that a man can lift more than his weight. And if he

were to employ his full force on a machine which could act on air as

does the screw, it would lift him by its aid through the air as it will

propel him through the water.

M. Paucton hastened to calm the incredulous reader by assuring him with

an affectation of levity that he was not really serious. “Il est permis

de s’égayer quelquefois.”

[153] A full account of these is given in Bourne’s _Treatise on the

Screw Propeller_.

[154] Weale: _Papers on Engineering_.

[155] The _Archimedes_, with a 3-foot stroke engine which worked at

27 strokes per minute, was run against the _Widgeon_, the fastest

paddlewheel steamer on the Dover station. Two points of importance

were noted by the Admiralty representatives with reference to the

propelling machinery of the _Archimedes_: the objectionable noise made

by the spur-wheels, and their liability to damage and derangement. As,

however, Mr. Smith proposed to obviate this objection “by substituting

spiral gearing in lieu of the cogs” the representatives did not lay

stress on these disadvantages.

[156] A similar paradox was accidentally revealed in the case of the

paddlewheel. It was at first thought that, the broader the floats the

greater would be the pull. A certain steam vessel, however, being found

to have too much beam to allow her to pass into a lock, was altered by

having her floats and paddle-boxes made narrower. It was found that her

speed had thereby been improved (Otway).

[157] Note sur l’État des Forces Navales de la France, 1844.

[158] Parliamentary Report on Screw Propulsion in H.M. Navy, 1850.

[159] Sir Howard Douglas was instrumental in bringing to the notice

of the Government the aggressive aims implied by the _Enquête

Parlementaire_: His notes were printed confidentially in ’53 at the

press of the Foreign Office. Vide his _Defence of England_, published

in 1860.

[160] _The Navies of the World._ Hans Busk, M.A., 1859.

[161] The details of these trials against iron plate will be found in

Sir Howard Douglas’ _Naval Gunnery_, third and subsequent editions.

[162] The rapid construction of over two hundred gunboats and

their steam machinery revealed the enormous industrial capacity of

this country, and constituted a feat of which the whole nation was

rightly proud. For instance of successful organization, Messrs. Penn

of Greenwich contracted to build eighty sets of main engines in

three months--a proposition ridiculed as impossible. By the rapid

distribution of duplicate patterns throughout the country the resources

of all the greatest firms were utilized, and the contract was fulfilled

almost to the day!

Some seven or eight years later, when the building of ironclads was

being debated in parliament, the government was able to recall this

achievement as an argument for not building too many ships of a new and

probably transitional type. If we liked, it was said, we could soon

produce a fleet of ironclads far greater than all the other Powers of

Europe besides.

[163] J. Scott Russell: _The Fleet of the Future: Iron or Wood?_ 1861.

[164] Reed: _Our Ironclad Ships_.

[165] Boynton: _The Navies of England, France, America, and Russia._

New York, ’65.

[166] Colomb: _Memoirs of Sir Cooper Key_.

[167] Colomb: _Memoirs of Sir Cooper Key_.

[168] In parenthesis, for she is of no special interest as a type, we

may note here the _Temeraire_, built at Chatham and completed in 1877:

a compromise between the central-battery and the turret ship. Generally

like the _Alexandra_ in disposition of armament, she carried in

addition, in order to give all-round fire, two open barbettes, one at

each end of the upper deck, each containing a 25-ton gun hydraulically

operated.

[169] The freedom of the _Royal Sovereign’s_ turrets from any liability

to jam was demonstrated at Portsmouth by subjecting them to the impact

of projectiles fired from the 12-ton guns of the _Bellerophon_.

[170] Colomb: _Memoirs of Sir Cooper Key_.

[171] Hitherto the torpedo had been used in warfare only in the form

of a stationary mine, or motion had been given to it either by letting

it drift on a tide or by attaching it rigidly to the bow of a vessel.

After the American Civil War, in which conflict three-fourths of the

ships disabled or destroyed were so disposed of by torpedoes, efforts

were made to give motion to it, either by towing or by self-propulsion.

In ’69 Commander Harvey, R.N., brought to the notice of the Admiralty

his invention of a torpedo or sea kite which was so shaped that, when

launched from the deck of a steamer and towed by a wire, it diverged

from the steamer’s track and stood away at an angle of 45°. It could be

exploded either electrically or by contact. The possibilities of this

weapon were illustrated in a volume published in ’71, one picture of

which showed luridly “an ironclad fleet surprised at sea by a squadron

of torpedo craft armed with Harvey’s sea torpedoes.”

The towed torpedo was overshadowed by the fish or self-propelled

torpedo. In ’70 Mr. Whitehead came to England and, prosecuting

experiments under the eyes of naval officers, with a 16-inch torpedo

successfully sank an old corvette anchored in the Medway at 136 yards’

range. The result was the purchase by the Admiralty of his secret and

sole rights. In ’77 the first torpedo-boat was ordered.

[172] Colomb: _Attack and Defence of Fleets_.

[173] Vice-Admiral Sir G. Elliot: _On the Classification of Ships of

War_.

[174] Brassey: _The British Navy_.

INDEX

_Active_, the, 298

_Agamemnon_, the, 288

_Ajax_, the, 288

_Alarm_, the, 44

_Alecto_, the, 239

_Alexandra_, the, 274

Anderson, Robert, 167

Anson, Lord, 43, 121, 151

Archimedes, 95, 115, 234

_Archimedes_, the, 238

_Argyle_, the, 225

Armada, the Spanish, 9, 77, 79

Armstrong, Lord, 200

Armstrong gun, the, 201, 255, 268

Atwood, 40

_Audacious_, the, 274

Bacon, Lord, 34, 93, 96

Bacon, Roger, 62

Baker, Ezekiel, 119, 189

Baker, James, 15

Baker, Matthew, 15

Balchen, Admiral, 147

Barnaby, Sir N., 50, 283, 289

Barrow, Sir J., 98, 229

Battery, central, ships, 270

Bawd, Peter, 72

Beaufoy, Colonel, 40

Beaufoy, Corporal, 190

Belleisle, siege of, 83

_Bellerophon_, the, 272

Bentham, Sir S., 55, 136, 162

Berghen-op-Zoom, siege of, 120

Bernouilli, Daniel, 37, 216

Bernouilli, John, 37, 115

Berthold the Friar, 62

_Birkenhead_, the, 257

Blake, 42

Blomefield, General, 85

Board of Ordnance, 145

Bold, Charles the, 87

Bonaparte, 165

Borda, the Chevalier, 37

Bossut, Abbé, 38

Bouguer, 37, 216

Boulton, 108, 222

Bourne, Robert, 143, 212

Boyle, 96

Boynton, 267

Brackenbury, General, 62

Bramah, 222, 234

Bridgewater, the Duke of, 218

Briggs, Sir J., 228

Broke, Sir P., 154

Brown Bess, rifle, 192

Brown, Commander, 235

Brunel, 228, 238, 277

Brunswick, rifle, 190

Buckhurst, Lord, 79

Burrell, Andrew, 23

Bushnell, 213

Busk, Hans, 184, 244

Byng, Admiral, 42

Cabots, the, 5

_Caiman_, the, 293

_Caledonia_, the, 49, 226

_Captain_, the, 280

Caus, Solomon, 95-98

Cawley, 103

_Cerberus_, the, 282

Chads, Captain, 249

Chapman, 39, 149

Charles I, King, 23

Charles II, King, 29, 96

Charles V, Emperor, 88

_Charlotte Dundas_, the, 219

Charterhouse, garden, 119

Chatfield, 59

_Chesapeake_, the, 156

Chinese gunboats, 291

Clerk of Eldin, 219

_Clermont_, the, 223

Cloyne, Bishop of, 116

Cockle, Maurice, 65

_Collingwood_, the, 292

Colomb, Admiral, 264, 287

_Colossus_, the, 288

Columbus, 5

_Comet_, the, 225, 229

_Commerce de Marseille_, the, 46

Compass, discovery of, 3

Condorcet, 38

_Congo_, the, 238

_Congress_, the, 263

Congreve, General, 85

Congreve, Sir W., 85, 91, 147, 158

_Conqueror_, the, 288

Consort, Prince, 277

Constantinople, siege of, 66

Corbett, Sir Julian, 1, 6, 7, 8, 9

_Couronne_, the, 254

Cowper Coles, Captain, 276

Creuze, Augustin, 59, 256

Cruiser, type, 298

Cumberland, Earl of, 20

_Curaçoa_, the, 230

Dahlgren, 139, 234, 261

_Dandolo_, the, 285

_Dauntless_, the, 242

Deane, Sir A., 28

Delvigne, 187, 194

_Demologos_, the, 225

Denny, Messrs., 226

Derrick, 28, 31

Desaguliers, Dr., 101

Desblancs, 217

_Devastation_, the, 281

Dirck, 98

_Doncaster_, the, 229

Douglas, Sir C., 151

Douglas, Sir H., 86, 173, 228, 257, 261

_Dreadnought_, the, 283

Duckworth, Sir J., 67

_Duilio_, the, 285

_Duke_, the, 130, 152

Dundas, Lord, 218

Dunkirk privateers, 23

Dupuy de Lôme, 253

Dutch ships, characteristics of, 27

_Dwarf_, the, 243

Elliot, Admiral, 246

Enfield rifle, 197

_Enterprise_, the, 273

Ericsson, 236

_Essex_, the, 137

Euler, 37, 216

_Excellent_, the, 158

_Ferdinand Max_, the, 263

Fincham, 1, 48, 53, 233

Finsbury Field, 82

Fitch, 220

Forbin, Count, 40

_Formidable_, the, 134, 153

Fortifications, land, 204

Fournier, Abbé, 144

Frederick the Great, 90

Fremantle, Hon. T. F., 184

Frigate, origin of, 23

Froissart, 64

Froude, 286

Fuller, 27, 171

Fulton, 221

Furring of ships, 17

_Galatea_, the, 229

Galileo, 95, 116

Galleasse, 4, 211

Galleon, 4, 7

Galley, 2, 71, 210

Gama, Vasco di, 5

Garoy, Blasco de, 212

Gautier, 216

Genoese, the, 4

Gibbon, 66, 69

Gibraltar, siege of, 250

Girdling of ships, 29

_Glatton_, the, 135, 282

_Gloire_, the, 205, 253

Gordon, Thomas, 48

_Grace à Dieu_, the, 76

_Great Britain_, the, 238

_Great Eastern_, the, 258

Greek fire, 61

Greener, 193

Gribeauval, 90

Gunpowder, 3, 70, 76, 99

Gustavus Adolphus, 90

Haddock, Sir R., 29

Halley, 117

Hampton Roads, battle of, 262

Hannay, 57

Hardy, Sir T. M., 159, 230

Harvey torpedo, 291

_Harwich_, the, 31

Hastings, Captain, 174

Hastings, Sir T., 248

Hautefeuille, J. de, 99

Hawke, Admiral, 43, 122, 151

Hawkins, Sir J., 8

Hawkins, Sir R., 9, 80

Hay, Lord John, 232

_Hébé_, the, 134

Henri II, King, 75, 89

Henry VIII, King, 6, 72

Henry, Prince, 19

_Hercules_, the, 273

Hero of Alexandria, 94

_Hibernia_, the, 48

Hime, Colonel, 61, 77

Hogue, battle of La, 32

Honourable Artillery Co., 82

Horse artillery, 91

Hoste, 37

_Hotspur_, the, 282, 287

Howard, Lord, 9, 77

Hugo, Victor, 147

Hulls, Jonathan, 215

Hutton, 122, 129, 132

Huyghens, 37, 96, 99

_Impérieuse_, the, 295

_Inconstant_, the, 298

India, East, Company, 45, 135

_Inflexible_, the, 285

Inman, Dr., 57

_Invincible_, the, 44

_Iron Duke_, the, 274

_Italia_, the, 289

Jacob, General, 196

Jal, 5

James I, King, 15

James II, King, 33

James, the historian, 49, 132

Joinville, Prince de, 240

Jouffroi, 217

Juan, Don G., 37

Kaltoff, Caspar, 97

Kempenfelt, Captain, 123

Keppel, Lord, 48

Key, Admiral Cooper, 268

Keyham, 254

Kinburn, 251

Knowles, Sir C., 45, 46

Krupp, 208

Kuper, Admiral, 206

_Lady Nancy_, the, 276

Laird, Messrs., 252, 280

Laputa, 34

Laughton, Sir J. K., 1, 9, 77, 153

Lepanto, battle of, 72, 78

_Lepanto_, the, 289

Lefroy, General, 67

Leibnitz, 214

Leipsic lexicon, 244

Lissa, battle of, 263

Livingstone, 222

Louis XI, King, 87

_Magenta_, the, 272

Malthus, 82

Manby, Aaron, 255

Manwayring, Sir H., 13, 143

Marestier, 224

_Mars_, the, 121

Marshall gun carriage, 158

Marsilly gun carriage, 158

_Mary Rose_, the, 74

Massé, Colonel, 86

Maudsley, Messrs., 285

_Maure_, the, 41

McLaurin, Colin, 39

_Medea_, the, 230

Melville, General, 127

Melville, Lord, 228

Mercier, Captain, 163

_Merrimac_, the, 262

Metacentre, discovery of, 37

Middleton, Sir C., 46, 123

Miller, Patrick, 127, 217

Minié, rifle, 195

_Minotaur_, the, 265

_Monarch_, the, 279

_Monitor_, the, 262

_Monkey_, the, 229

Monro, Colonel, 173

Mons Meg, 65

Moore, Sir Jonas, 98, 143

Moorfields, 82

Moorsom, Captain, 261, 266

Morland, Sir S., 29, 99

Muller, 84, 88

Murray, Mungo, 39

_Nancy Dawson_, the, 58

Napier, Sir C., 230, 233, 241, 255, 266

Napoleon III, 75, 87, 199, 250

Navarino, battle of, 156

Nelson, 45, 154, 269

_Nemesis_, the, 255

Newcomen, 102-106

Newton, 35, 96, 117, 214

Nicolas, Sir H., 3, 63

Noble, Captain, 207

Noel, Commander, 264, 289

Normans as shipbuilders, 5

Norton, Captain, 193, 199

Norton, Robert, 76, 78, 142

Nye, Nathaniel, 98

Oak, English, 27

_Odin_, the, 233

Oppenheim, 1, 4, 5, 7, 9, 73, 75, 77, 81

_Orient_, the, 164

Otway, Commander, 110, 231

_Pacificateur_, the, 172, 248

Paixhans, 166, 227

Pakington, Sir J., 258

_Pallas_, the, 279

Palliser, Major, 205

Papin, 102, 213

Pardies, 36

Pascal, 95

Peake, Sir H., 56

Pechell, Captain, 157

Peel, 257

_Pembroke_, the, 41

_Penelope_, the, 233

Penn, Messrs., 253

Pennington, Sir J., 23

Pepys, 27, 33, 81, 96, 130

Perrin, 15

Pett, Peter, 23

Pett, Phineas, 15, 18

Petty, Sir W., 35

_Phœbe_, the, 138

_Phœnix_, the, 26, 175

Pickard, 108, 217

Pitt, 49

Plat, Sir H., 186

Point-blank defined, 114

Porta, della, 95

Potter, Humphrey, 105

Prevesa, battle of, 72

_Prince Albert_, the, 278

_Prince Royal_, the, 19

_Princessa_, the, 43

Proof of guns, 81

Punchinello, 130

_Rainbow_, the, 134

Raleigh, Sir W., 16, 24, 79

_Raleigh_, the, 298

Ram tactics, 263, 290

Ramelli, 212

_Rattler_, the, 239

_Ré d’Italia_, the, 263

Reed, Sir E., 59, 274, 279

Richelieu, 24, 212

Riders in ships, 11

_Rob Roy_, the, 226

Robins, Benjamin, 112-124, 129, 187

Robison, 106

Rodney, 134, 153

_Rolf Krake_, the, 277

Romme, 38

Roncière, de la, 212

Ross, Sir J., 227

_Royal George_, the, 43, 83

_Royal Katherine_, the, 35

Royal Society, foundation of, 96

_Royal Sovereign_, the, 278

_Royal William_, the, 28

_Ruby_, the, 249

Rumsey, 220

_Rupert_, the, 288

Rupert, Prince, 214

Russell, Scott, 252, 257, 264

Samuda, Messrs., 278

Sartorius, Admiral, 261

_Savannah_, the, 226

Savery, 100, 215

Schalk, 83

Scharnhorst, 88

Schmidt, 184

Scloppetaria, 184

Scott, Commander, 200

_Scourge of Malice_, the, 20

Seppings, Sir R., 46, 51

Sewell, 39

_Shah_, the, 298

_Shannon_, the, 154, 299

Sheathing, introduction of, 18

Sheerness, 254

Shish, 29, 35

Shovell, Admiral, 81

Shrapnel, Lieutenant, 91, 163

_Sidon_, the, 233

Simmons, Captain, 164, 176

_Simoon_, the, 249

Sinope, battle of, 162, 249

Slingsby, Sir R., 145

Smith, Pettit, 236

Snodgrass, 47

_Solferino_, the, 272

_Sovereign of the Seas_, the, 24

Spitalfields, 81, 130

_Sprightly_, the, 229

Stanhope, Lord, 221, 228

Stevinus, 95

Stockton, Captain, 237

_Stromboli_, the, 276

_Sultan_, the, 273

Surveyors, abilities of, 55

Sussex, iron mines, 69, 78

Sutherland, T., 35

Sveaborg, bombardment of, 252

Symington, 218

Symonds, Admiral, 57

Tactics, 2, 8, 30, 33, 77, 131, 153, 210, 263

Tartaglia, 89, 116

Taylor, 218

Tegetthof, Admiral, 263

_Temeraire_, the, 275

Tennant, Sir E., 200

_Terrible_, the, 233

_Thames_, the, 225

“Thieves, Forty,” the, 56

Thouvenin, Colonel, 195

_Thunderer_, the, 283

Torelli, 212

Torpedo, evolution of, 291

Torricelli, 95

Touchard, Admiral, 264

_Trades Increase_, the, 21

Trafalgar, battle of, 45, 49, 53, 269

Treuille de Beaulieu, 199

Trim, definition of, 13

Trinity House, 24

Trollope, Captain, 135

Tromp, 31

Trunnions, evolution of, 86

Truss frames, 52

Tunnage, 5, 49, 56

Turgot, 38

Turret, the evolution of, 271, 275

Types, differentiation of, 296

Upnor Castle, 81

_Vanguard_, the, 274

Vauban, Marshal, 160

Ventilation, study of, 44

_Victory_, the, 45, 53, 147

Villani, 64

Vincennes, 194, 250

_Volage_, the, 298

Walker, Captain, 193

Wallis, 35, 96

Walter, 120

Waltham Abbey, 85

_Warrior_, the, 205, 260

_Warspite_, the, 295

Watt, 93, 105-110, 217

Waymouth, Captain, 17

Wellington, 240

_Whelps_, the, 23

Whitehead, 292

Whitworth, Sir J., 197

Willett, 43, 48

Woodcraft, 212

Woolwich, 82

Worcester, Marquis of, 93, 97, 213

Wynter, Sir R., 145

Zöllner, 184

Transcriber’s Notes

Punctuation and spelling were made consistent when a predominant

preference was found in this book; otherwise they were not changed.

Archaic spellings have not been changed; the spelling of non-English

words has not been changed.

Simple typographical errors were corrected; occasional unbalanced

quotation marks retained.

Ambiguous hyphens at the ends of lines were retained; occurrences of

inconsistent hyphenation have not been changed.

Pages with Plate-illustrations included printer’s information regarding

the pages the plates should face. That information has been removed in

this eBook, as those illustrations are positioned as close as possible

to those pages.

The spelling and grammar of French text has been reproduced here as it

was printed in the original book.

The publication information of a few citations was italicized, but as

that is not the style in most of the book, those words and dates are

shown here unitalicized.

Footnotes, originally at the bottoms of pages, have been collected and

placed just before the Index of this eBook.

Index not checked for proper alphabetization or correct page references.

Page 5: “tunnage” was printed that way and is in the Index, but the

other pages to which the Index entry refers spell the word as “tonnage”.

Page 23: “remonstance” was printed that way.

Page 47: “to their rates, And” was printed that way.

Page 72: “the King’s feedmen” was printed that way, probably should be

“freedmen”.

Page 265: “Give her the stem” was printed that way.

The Evolution of Naval Armament · 第 12 / 12 章