Plan of ground floor.
Plan of ground floor.
Plan of ground floor.
superintended the construction of a small sculpture gallery for the late Sir Francis Chantrey at Pimlico.
The ground plan of this design shows a gallery of sculpture in the centre of the building, a small
Section of staircase.
Section of staircase.
Section of staircase.
“Museo Chiaramonti.” The principal group at the end, representing the capture of the Queen of the Amazons, is so placed that the staircase winding round it forms its base; the group can be seen fromthe staircase, and from the galleries at the side, in every point of view. This being a large building, the scale upon which the plans, elevation, and sections are drawn is smaller than the scale previously used in this volume. The gallery, including that portion which forms the ante-room to the conservatory, is 80 ft. in length by 20 ft. in width, which is a poor
Plan of principal staircase.
Plan of principal staircase.
Plan of principal staircase.
imitation of the gallery at the Vatican—the Museo Chiaramonti. This is 280 ft. in length, with a breadth of 20 ft.
But the possession of only a million of money gives a moderate income compared with that of the sovereign popes at the time the Vatican was erected. The
Section through gallery and conservatory.
Section through gallery and conservatory.
Section through gallery and conservatory.
sculpture is arranged on each side of the gallery, the bas-reliefs inserted in the walls, the bronzes on small pedestals, a reclining group is placed in a niche in front of the staircase. A marble group is placed in the fountain in the ante-room to the conservatory, and another in the conservatory itself. A gallery of this description permits the admission of a large quantity of sculpture, allowing it to be seen with advantage. The entrance of the building, partly taken from the front of one of the Italian palaces,[C]permits a large quantity of sculpture to be placed in advantageous positions. The plan, page 340, shows an entrance loggiaa, the hallb, 17 ft. by 16 ft., with the waiting-roomc, to the right, the breakfast parlourd, and the butler’s pantryg, to the left;fis the library, 28 ft. by 16 ft., entered either from the gallery or the waiting-room. It has a large window looking into the ante-room to the conservatory, and permits a good view of the group of sculpture and the fountain in the centre;eis the gallery, with the principal staircase,iis the dining-room opening into the picture gallery and drawing-roomh,k.
The section, page 343, shows the general arrangement, and an idea can be formed of its grandscenic effect in summer, when the doors were opened. The walk round the conservatory and through the whole of the gallery would have a length of 170 ft., and round the galleries 150 ft. more, giving ample space to place a very large collection of sculpture. Underneath the gallery were supposed to be large cellars for wine. These had a private entrance through the pedestal of the Amazonian group, as shown in the plan and section to a larger scale at page 342; the collection below was supposed to be as valuable as the one above, and calculated to yield as much enjoyment, and one certainly that would be more highly appreciated by a greater number of persons. The villa, however, is on a small scale compared with some of the noble residences in the county, and the accommodation throughout very scanty. The servants’ offices are shown annexed to the plan;lis the kitchen, 24 ft. by 22 ft.,mthe scullery,nthe housekeeper’s room,oa small servants’ hall,pis a serving room, andqthe external entrance to the cellarage.
By the side of the principal staircase is a descent into the cellars and basement, for the servants,b, plan page 342. The conservatory has a diameter of 40 ft. and a height of 44 ft.; it is of light construction, in decorated ironwork.
The one-pair plan shows the sleeping department, the principal bed-rooms,bb, each with a dressing-room,
Plan of one-pair.
Plan of one-pair.
Plan of one-pair.
dd. These are entered direct from the gallery; in the front of the building are five smaller sleeping
Cross section.
Cross section.
Cross section.
rooms. At the conservatory end the gallery opens on to the roof of the ante-room beneath, and from thisthere is an entrance to a circular gallery inside the conservatory. On the servants’ side are seen two large sleeping rooms, and a housemaid’s closet; as this portion of the building is kept lower than the other, it could have two or three rooms constructed over the kitchen, or it could be carried up another story. The plan of the principal bedchambers is taken up another floor; the small staircase for this purpose is seen at the end of the gallery.
The cross section (page 347) shows the height of the building, and its general construction. The whole of the principal living rooms in the three floors are of the same height, 16 ft. 6 in. each; 37 steps were required in the principal staircase to ascend to the first floor on one side, and 31 on the other; the roof of the saloon was to be constructed similar to the roof of the Riding-house shown in plate, page 389. Large roofs can be constructed on this principle at a very cheap rate, and it is a very strong and efficient one; the roof of the Pantheon in Oxford-street, constructed by Mr. Sydney Smirke, is of a similar kind; the roofs of the annexes to the Exhibition building of 1862 by Captain Fowkes were on the same principle, but as these were only intended to stand for a year, were very slight. The cross section shows the ventilating flue, proposed and illustrated in a following chapter; the small stack in the low building shows the incline necessary to meetthe back eddy of wind from the high building. It would have been better, could it have been effected, to have placed the stack in a position parallel to the high building, and not at right angles to it. The stack on the latter shows two ventilating flues, each with an upward shaft; the whole of the smoke from the fireplaces would be delivered from these two shafts.
It only remains to illustrate the system of warming proposed to have been introduced. This was by a combination of two entirely different systems of warm water circulation through iron pipes.
The various apparatus of warming buildings by the circulation of hot water, may be roughly stated to be of two kinds, each acting on the opposite principle to the other. The first, or more modern one, is theclosed system. This has always been preferred by the author, it being more conveniently introduced into a building, less expensive, and giving less trouble than any other, and more certain in its action. In it the water circulates with great rapidity, completely under pressure, the pipes being closed, and the whole of the air expelled from them. The older system is that in which the tubes are not closed, but are connected with a cistern, into which the water is allowed to flow and re-flow; the two may very properly be called the high and low temperature systems, and by these terms theyare here designated. With the first, the tubes can be made to reach a higher degree of heat if necessary, by placing a larger proportion of them than is usual in the furnace; but with the second, a temperature of 180 degrees can alone be reached. With the latter, its greater or less efficiency depends upon the position of its open cistern, which regulates the amount of pressure in the tubes, according as its situation is high or low. It was introduced into this country about 1818; the open cistern was placed in the upper part of the house, the boiler being below in the kitchen, thus allowing a considerable pressure in the tubes, and securing a quick circulation of the water. The high temperature system was introduced by A. M. Perkins, Esq., about the year 1832; in its simplest form it consisted of a continuous or endless tube of wrought iron of one inch external diameter, filled with water, and closed in all parts; a portion of the tubing was formed into a coil and placed in a furnace of wrought iron, the fire being enclosed in fire-brick. When it was first introduced a larger amount of tubing was placed in the furnace than is now usually done; with the proper amount, one-tenth or one-eleventh only of the full quantity is necessary, and then it must be obvious that no overheating of the tubes can take place. In practice it is more usual to find objections made to the apparatus not giving sufficient heat, thanto its giving too much. The quantity of feet in pipes necessary to raise rooms of a certain size to a given temperature, must be proportioned to their cubical contents, and this depends equally on the situation and aspect of the building, the number of doors, and windows or skylights; no rule can consequently be given which would be applicable to all places with any degree of certainty.
The pipes being only five-eighths of an inch internal diameter, a very small quantity of water is required to fill the apparatus. A tube called the expansion tube is placed above the highest level of the circulating pipes, and is generally of larger diameter. The object of this tube is to allow for the expansion of the water as it becomes heated; a tube is also placed at the highest level, in order to fill the apparatus, so as to leave the expansion tube empty.
The tubes are provided with screw plugs, so as to be conveniently opened when it is required to fill the pipes with water, and closed again after being filled. This can be done with facility by a servant. The circulation of the water is produced by the application of heat to the coil in the furnace; and as the small size of the pipes admits of presenting the largest possible amount of surface to the action of the fire, it is clear that a greater economy of fuel is effected by it than by the ordinary system of boilers. As the waterbecomes heated it rises immediately to the highest level of the circulating pipes, and thus forms a column of heated water, specifically lighter than the colder water, which descends to the lower part of the coil. Thus a circulation is effected throughout the whole course of the pipes,[D]which eventually become heated, and the whole may be regulated exactly to that degree of temperature which is most conducive to a beneficial effect.
To regulate the degree of heat to be given to the tubes, without requiring the necessity of an attendant, advantage has been taken of the expansive property of the iron pipe when heated. There are three multiplying levers fixed in a box, and so placed that the short arm of one of the levers rests upon a regulating screw attached to the flow pipe. On the other end of the series of levers a rod so rests that upon the slightest movement of the levers, the damper in the flue, which is attached to the rod, is opened or closed, as the case may be. The box of levers is suspended from the hot pipe, so as to leave about two feet in length between the point of suspension and the point of contact with the short arm of the lever.
The operation of this arrangement is obvious, for the instant the pipe becomes heated, it expands and presses the short arm of the lever; and as the fulcrum within the box cannot move, by reason of the rod which suspends it being cold, it follows that the lever must be depressed, by which action a sufficient motion is given to the damper, to close it at any given temperature at which it may be originally fixed.
The great advantage in the use of this apparatus is the saving of time in obtaining the requisite degree of heat. It often happens that the time occupied in heating the water of an ordinary hot-water apparatus completely defeats the object of getting warmth in any reasonable time, particularly in greenhouses, where it is frequently desirable to get up the heat quickly, to prevent the effect of frost. It has been said that this property of generating the heat rapidly has the disadvantage of not being able to retain it: this, however, is not the case, for, on the contrary, an equal temperature may be maintained for any length of time that may be desired. It is only necessary to make the fireplace sufficiently large to contain fuel enough to last the time the heat is required to be continued, and the damper will regulate the combustion of the fuel and the heat of the pipes, so that there will be no variation for twelve hours together.
There being no boiler to the apparatus, it is free from the ordinary danger of explosion; if a pipe by possibility should burst, no harm ensues, for the water escapes from so small an aperture that it becomes absolutely cool by its expansion and mixture with atmospheric air.
So little fear of fire exists with the apparatus, that the directors of the principal fire offices readily accept, at the lowest rate of premium, all proposals for the insurance of buildings in which the system is adopted, not requiring even the customary inspection.
The author made drawings of one of these apparatus put up in an ornamental greenhouse in Kew Gardens in 1844; and fourteen years after, the director of the garden, Sir W. J. Hooker, publicly allowed it to be stated in print that no hot-water apparatus in any of their houses had given so much satisfaction; that the heat was given out after lighting the fires more rapidly than in any other of their houses, and steadily maintained at any degree of temperature required. The two systems of the high and low temperature can readily be combined, and the temperature of both large and small tubes nearly equalized. This may be done by using one furnace. A diagram given by Dr. Arnott in a lecture delivered by him at the Royal Institution in March, 1836, with his explanation, will show the principle upon which the combination iseffected. Suppose A, fig. 1, is a cistern full of cold water, and B a cistern full of hot water: if the two cocksccare unturned, it is a fact that the water atdwill be one degree of warmth only above the water at
Fig. 1.
Fig. 1.
Fig. 1.
A, and the water at e will be of one degree less temperature than the water in B. If, therefore, on this principle, some of the pipes of the high-temperature system are passed through the large tubing of the low temperature one, the desired effect is obtained: the large pipes or tablets of one apparatus remain at their full heat, while an additional quantity of inch pipe of sufficiently warm temperature is obtained, that can be carried into rooms and placed in situations into which the warming surfaces of the low-temperature system could not be made to approach.
As regards the low temperature apparatus, if the large pipes belonging to it are laid in sufficient quantity, they doubtless have the effect of producing a moderate degree of heat.
The best way of introducing them into a dwelling-house is to sink them in channels in the floor, withperforated ironwork over them: they are more usually introduced into hothouses, factories, and workshops, where their appearance is not objectionable. A feeling exists in favour of their use in conservatories; in order to show how they can be retained for that purpose, the combined systems are introduced in the plan of the villa here described.
The ground plan shows the entrance hall, the gallery or sculpture saloon in the centre, the principal staircase, the picture room and the servants’ staircase, all warmed by the inch pipes; the larger pipes are introduced into the conservatory. In the picture room—that between the drawing-room and the dining-room—and in the hall, the pipes are sunk in trenches in the floor. They are close to the walls, and lined with brick with an inside covering of zinc. These trenches have over them perforated ornamental ironwork;a´a´are pedestals containing coils of pipe;b´b´are pipes behind the skirting, likewise perforated. Where these pipes pass the doorways they are sunk in the floor. In the conservatoryd´d´are the large pipes;fis an open cistern, through which the circulation of water in the pipes flows; atgare placed the expansion and filling tubes.
Fig. 2 is an isometrical view of the pipes, furnace, and cisterns complete to a small scale;eis the furnace placed in the basement;fis a cistern of coldwater through which the flow and return pipes from the furnace pass: the water becoming heated in the cistern flows out, and returns in the direction shown by the arrows. The flow pipe, leaving this cistern, passes up to the expansion tubeg, whence the tubes run through the building in the manner shown, returning to the furnace. The pipesd, are two other flow and return pipes, furnished with a stop-cock, by means of which the circulation can be confined either to the house or to the conservatory. The furnace
Fig. 2.
Fig. 2.
Fig. 2.
should in reality contain two coils of pipe, having two flows and two returns, the whole of which should go through the cisternf, but the small scale of the plate allows one circulation only to be shown.
Dr. Arnott’s principle of nearly equalizing temperatures was applied by him for room ventilation. Its mode of application is explained in the following extract from his report on “Warming and Ventilating Infirmaries, Workhouses, Factories, and Domestic Apartments,” given in the appendix to the SecondAnnual Report of the Poor Law Commissioners:—“In rooms where the mechanical mode of ventilation already described (by means of fanners) and now common in factories, has been adopted, an addition might be made to the apparatus for extracting the impure air, which would drive fresh air in, and which, by causing the two currents to pass each other in contact for a certain distance in very thin metallic tubes, would cause the fresh air entering to absorb nearly the whole heat from the impure air going out, and would thus render it at once both pure and warm, and would consequently save, after the room was once warmed, any further expense of fuel for the day, and would avoid, how rapid soever the ventilation, all the danger from draught and unequal heating.”
The above idea is extremely ingenious, but as to its practical efficiency, some doubt might be expressed. The temperature of a warm room, even if it was 65°, would be much too low to produce the action described.
A very ingenious application of the small-tube system of warming has been introduced into his dwelling by Mr. Babbage. He placed the furnace in the basement, and divided the whole length of piping by means of a multiple cock into four circulations, any one of which he could turn off or on at pleasure; one circulation warmed the bath, which,when the cistern that supplied it was once up to 160 degrees (and this it took an hour to obtain), remained sufficiently warm for a bath during 24 hours. The whole quantity of pipe in the building was 891 feet, and the quantity in the furnace 135. The thermometer in the smoke-flue was seldom higher than 212 degrees, when that in the flow-pipe was 240 degrees. Any two or three, or all four of the circulations could be worked together, by simply turning an index provided for the purpose.
The tool-room was always kept at a temperature of from 50° to 54°. In winter the hat-room received a portion of piping, so that coats and gloves, even in the dampest weather, were always kept dry. One circulation was sent through the dining-room a short time before it was used; it was after a certain time turned off and sent through the bedrooms and dressing-rooms. The various rooms in the winter were kept at different temperatures, the dressing-rooms were a few degrees warmer than were the bed-rooms: an inducement for early rising. The linen was aired, and warm water provided in the dressing-rooms and for the use of the servants. The apparatus saved labour in cleaning and lighting of fires, and it was economical, the consumption of fuel during the six winter months being about a bushel of coke in 24 hours. The supply of air, and the consequentcombustion and quantity of fuel, was regulated by the fire itself. This was never suffered to go out after it had been once lighted, except when necessary to remove the clinkers, and this occurred about once a fortnight. In the morning, about seven o’clock, the fire was well shaken by means of a lever attached to the bars of the grate. Coal or coke was supplied, and the air valve opened. The stop-cock was then turned on to supply the coils for the library and stairs. At about eight o’clock in the evening the stop-cock was turned to heat the coil of the bath, and at eleven o’clock, fuel having been supplied, the air valve was completely closed, and the damper also if necessary. By these means the fire burned very slowly during the whole of the night, and the bath cistern received the warmth thus generated.
These conveniences and luxuries might be more generally applied than they are at present in the dwellings of this country.
This small ornamental structure was designed for a garden in Wiltshire, on an estate near Chippenham. The garden, which is very extensive, rises
Perspective view.
Perspective view.
Perspective view.
Plan.
Plan.
Plan.
in steep terraces up the combe or hill by the side of the mansion, which lies down in the valley. The structure was to be on the highest part of the garden,
Elevation of front.
Elevation of front.
Elevation of front.
commanding an extensive view of the valley, the village, and adjacent country. As the house is in the neighbourhood of several fine old Elizabethan mansions, the design partook of that character. The view represents
Section.Side elevation.
Section.Side elevation.
Section.
Side elevation.
Balustrade.
Balustrade.
Balustrade.
the structure in its complete state, with the terrace overlooking the valley. The turret on the tower of the village church is seen in the distance. The latter
Portion of exterior front.
Portion of exterior front.
Portion of exterior front.
Portion of the entrance front.
Portion of the entrance front.
Portion of the entrance front.
Balustrade (2nd example).
Balustrade (2nd example).
Balustrade (2nd example).
is an agreeable object in the view, being an extremely fine specimen of Decorated English Gothic, and in good preservation.
The plan is beneath the view, and the elevation of the building is likewise given. The whole of it was to have been constructed in stone; the vases were intended to receive flower-pots, so that a constant change of flowers could be placed in them by the pots being changed as often as was desired. A section through the centre and a side elevation are given; the balustrade is from an ancient example, it is five inches in thickness. The mouldings of the exterior are of plain Roman character, without any admixture of Gothic forms. The best examples of our Elizabethan architecture are pure Italian, but possessing a bolder and more picturesque outline, suited to our northern climate, than that shown by the elegant Italian model.
The second balustrade, p. 365, was an after-suggestion, it being considered more appropriate to the design than the first one. Another elevation was made for the same structure; this is shown as Design No. 30; it was to occupy the same site, and to have been constructed wholly in stone.
Opposite is a drawing of an ancient chimney-piece at Enfield, bearing the inscription—
Sola salus servire Deo,Sunt cætera fravdes.
Sola salus servire Deo,Sunt cætera fravdes.
Sola salus servire Deo,Sunt cætera fravdes.
Ancient chimney-piece in the Palace School, Enfield.(Formerly in the occupation of Queen Elizabeth.)
Ancient chimney-piece in the Palace School, Enfield.(Formerly in the occupation of Queen Elizabeth.)
Ancient chimney-piece in the Palace School, Enfield.
(Formerly in the occupation of Queen Elizabeth.)
THE turret of the village church is seen through the centre opening; this was proposed to be filled with plain and coloured glass; the detail of the ornament above the cornice is copied from that on
Plan (2nd design).
Plan (2nd design).
Plan (2nd design).
the gables of Charlton House, Wiltshire, from which the author had just returned, having visited it for the purpose of making drawings and fully illustrating it in one of his publications.
Perspective view.
Perspective view.
Perspective view.
Section.
Section.
Section.
THIS design represents an old-fashioned ice-house, such as were constructed in the country several years ago, and still are so, where large quantities of ice are required to be stored. This small structure, embosomed amidst trees, impervious to the sun, was formed with the stone of the district, and arched and domed over with bricks. The wella, sunk in the earth, is 10 feet in diameter,bis a cesspool to receive the water that drops from the ice, andcis the drain
Plan.
Plan.
Plan.
to convey it to the welld; the ice is thrown in from the top, the earthe, and the two stone slabs and the straw between them, being removed.
As an additional precaution against warmth, the structure was buried in a mound of earth. This, as it quite destroyed any picturesque effect it would otherwise have had amidst the trees, is not shown in the view.
These ice-wells have not often so long a passage of approach; one only from 6 to 10 feet in length is sufficient, but double doors and a free current of air across the entrance passage are desirable. It has not often a domed roof to cover that of the well, a common wooden roof covered with thatch placed a few feet above the roof of the well being sufficient; neither is it often considered necessary to have a well to receive the water dropping from the ice. The ice-well walls may be splayed down to the ground, with proper footings, and an uncovered piece of ground left at the bottom. Over this is placed an open wood frame, which supports the ice, and permits all water to drain off. When the walls are splayed down in this form, buttresses must be added to support them, and the weight of the ice. Every country house in America is provided with an excellent ice-house of the simplest and most practical kind. It consists of a deep excavation in the earth, roofed over with a pointed thatch. These ice-houses are always well filled in the winter, and rarely if ever quite emptied during the summer. An accurate section of such an ice-well, with full directions for its construction, has been lately published.[E]
One of the chief peculiarities in small suburban villas that have been erected near London within the last thirty years, is that of making the
Elevation of principal front.
Elevation of principal front.
Elevation of principal front.
chief room on the basement the ordinary apartment for the family. The confined areas formerly adopted in front and back of the building are omitted, andthe earth is sloped up in form of a bank, being adorned with flowers and shrubs so as to look pleasing from within the apartments. There is usually a side room in the basement, with descending steps to the entrance, which serves as an office to the occupier of the house. If his business be chiefly in the locality,
Ground plan.
Ground plan.
Ground plan.
this is very convenient; the chief room in the basement is used as a dining and supper room, and indeed for all common purposes by the family. It renders it unnecessary to have more than one, or at most, two servants’ rooms. The drawing-room, the library, and the superior dining-room are on the floor above.
This suburban dwelling very much resembles the same class of structure in America, where economy of space is carried out more completely than with us, and the residents are less dependent on servants. In the American house, the pantry is nearly always placed between the kitchen and the dining-room, and its chief approach is from the latter, even when the dining-room is on the ground floor. The American
One-pair plan.
One-pair plan.
One-pair plan.
house has the office, or place of business of the occupier, on the lower floor, with its separate entrance. The Americans exhibit a compactness of arrangement and an attention to detail that prove they are in no way behind us in a knowledge of what is requisite for household comfort. One peculiarity in the American building is the verandah, which is considered to be indispensable. It is large and roomy, and often placed on three sides of the building; the climate, warmer and drier than our own, renders such an addition a
Section through front and back.
Section through front and back.
Section through front and back.
great luxury. Our atmosphere in the winter months has often been pronounced of leaden gravity, and it does not permit of any erection that stops the circulation of the air, which would render it stagnant. Another peculiarity in the houses of our American cousins, is that they are often cased in wood. If the house be only two or three storeys in height, an 8-in. brick wall is considered sufficient: this is “furred off outside, and covered with clap boards,” in the ordinary
Basement plan.
Basement plan.
Basement plan.
way followed in a wooden building. Its advantage is, that it is sure to secure a perfectly dry wall. This mode of construction in England would necessitate the painting of the whole of the exterior once at least in every three or four years. One more suitable with us for a wall in a damp situation would be the planthe author pursued in the house on Salisbury Plain, putting quartering against the wall, and covering it with diamond slating. The surface could be varied with coloured encaustic tiles so as to present a pleasant
Front windows.
Front windows.
Front windows.
appearance, proper ventilation being given behind the slating.
The small suburban villa represented in the plateis supposed to stand on a plot of ground with a frontage of 50 ft.; the construction is in brick and stucco, the small columns of the portico are of Bath stone. The plan shows a small halla, the libraryc, 15 ft. by 14 ft., and on the right with a strong closet. The dining-roome, is 18 ft. by 15 ft., and on the left; the drawing-roomd, is 23 ft. by 18 ft. There is a large commodious staircaseb, and leading from it a small dressing-roomi, and closet. This dressing-room might easily be made to contain a bath; the water for the bath in any one of the floors should always be heated by means of a close boiler attached to an ordinary kitchen-range. It is the most simple, economical, and efficient arrangement for that purpose, as no more fire than that used for cooking is required. The cold water is supplied from a cistern at the top of the house, and a continual circulation of the water between that and the boiler goes on, the hot water ascending, the cold descending. Pipes may be branched off from the ascending pipe, which leaves the top of the boiler, and taken to any part of the house, ensuring a supply of hot water to dressing-rooms, nurseries, &c. Instead of a boiler, a coil of iron or copper pipe is often used, rendering the circulation quicker and more effective. The one-pair plan of the suburban villa contains three large bedrooms, two dressing-rooms, and one invalid’s roomentered from the staircase; to this room the closet could be attached. The staircase leads up to two large attics for the servants.
The section, p. 376, shows a portion of the front and back of the building, with the construction of the roof, the back wall not being carried so high as the front. This is done to give the building an imposing appearance from the road, a mode of construction very often carried out in suburban houses. The basement plan affords good accommodation;fis the kitchen, 18 ft. by 15 ft.,gthe scullery,hthe larder,kthe living room,lthe business office, with its separate entrance. The closet for the servants is external; the footman’s pantry and the wine cellar lead out of the staircaseb; the coal cellar is under the portico. The house thus contains seventeen rooms; the cost of its erection would be 3260l.completely finished. A detail of the windows is given on a large scale at page 378.
The following is an elevation of the vane, the constructive detail of which is given in a former vignette. The character is Elizabethan, and designed from an example at Oxnead Hall, Norfolk.
Elevation of principal front.
Elevation of principal front.
Elevation of principal front.
THIS design is also one for a suburban villa, or a small country house, on a rather larger scale than the preceding. This villa, dressed with a plain Italian elevation, and of smaller dimensions as to plan, has been erected on several sites near London. The front of the present design was partly taken from a plate in “Nash’s Mansions,” at the request of a
Ground plan.
Ground plan.
Ground plan.
gentleman who very much admired it, and who was anxious to have a semi-detached villa of the same character. The villa was therefore designed so that another could be placed by the side of it. The two gables form the centre, the chimney stack is between them on the roof; the front was to have a sunk area,topped by a Gothic balustrade, and as there were no principal rooms on the basement floor in the front of the house, this was easily given; the rooms at the back looked into the garden, and these had the ground in front of them sloped up.
The ground plan shows an entrance halla, 14 ft. by 10 ft., with a commodious staircaseb, 18 ft. by 12 ft., to the left. There was a closet to the right;
The one-pair plan.
The one-pair plan.
The one-pair plan.
a lift from the basement could easily be obtained here. The studyc, was about 16 ft. square, and was entered from the hall; the dining-roome, had a bay window, and was in the centre of the building; it measured 20 ft. square. The drawing-roomd, was very large, being 31 ft. in length by 16 ft. in breadth, with a large window at each end; this was often consideredobjectionable, as the occupants of the room can always be seen from the opposite houses, but as this was intended for a semi-detached villa, windows could not be obtained at the side.
The one-pair plan contains one large and three small bedrooms, with a closet. Over the porch was placed a conservatory, and by its side the tower staircase led up to the attic. This contained four good-sized
Attic plan.
Attic plan.
Attic plan.
bedrooms, each with a fireplace; there was a housemaid’s closet, and a place for the slate cistern to supply the lower part of the house with water; a small cistern on a higher level was placed on the roof of the tower. Another room could easily have been obtained on this floor, by continuing the passage at the housemaid’s closet through the centre room, andthis was proposed, but it was objected to, as it could not be rendered light and airy. A second staircase,