US1585221A

US1585221A - Oil burner

Info

Publication number: US1585221A
Application number: US75295A
Authority: US
Inventors: William E Wine
Original assignee: Individual
Current assignee: Individual
Priority date: 1925-12-14
Filing date: 1925-12-14
Publication date: 1926-05-18
Anticipated expiration: 1943-05-18

Description

May 18, 1926,

1,585,221 W. E. WINE OIL BURNER Fllecl Dec 4 1925 4 Sheets-Sheet 1 Invenior: VM'z'ZZiamEITAfi'ne 29 (film/M May 18 1926.

I 1,585,221 w. E. WINE OIL BURNER Filed Dec. 4 5 4 Sheets-Sheet 2 57:9 .2. /A 34 55 '2 53 a @Wz) ,1

William E'. W'ne May 18 1926.

1,585,221 w. E. wn E OIL BURNER Filed D c. 14 1925 4 Sheets-Sheet 5 InaenZ'or: \AZiZZiam E. Man

.9 GB/LZAJ 1,585,221 W. E. WINE 'OIL BURNER Filed Dec. 14 1925 4,Sheets-Sheet 4 29 10 2 Int 'enio 2".

W1 Ziaml'. Zine,

Nanny.

Patented May 18, W26.

UNITE sTA'res earsnr OFFICE.

WILLIAM E. WiINE, OF TOLEDO, OHIO.

OIL BURNER.

Application filed December 14, 1925. Serial No. 75,295-

My invention relates to new and useful neath the rotor is positioned means for dislmprovements in oil burners, especially tributing water in the form of steam to the i adapted for domestic use and has for an obunder surface of the rotor to prevent carbon 3ect to providdan oil burner which may be from building up on the under side of the 5 quickly and readily placed in an ordinary rotor, as if carbon accumulates upon this domesticheating furnace. rotor it will, in time, become so thick that it Another object of the invention is to prowill prevent the motor from turning. 00 vlde an oil burner in the nozzle of which Another object of the invention is to prothere 1s located a small rotor actuated wholvide a manifold directly above the rotor and ly by the expansion of the hot air as it to so arrange the manifold-and vanes within rushes into the flame area. the outlet of the manifold that the hot air Still another object of the invention is to will be driven in an angular direction a ainst 06 provide an oil burner in the nozzle of which the vanes of the rotor to cause the rotor to there is located a small rotor having a plutravel'at a high speed and thus cause the rality of vanes thereon, which vanes are lo breaking of the oil in the various particles. cated directly beneath the outlet of a mani- Furthermore, it is well known that the hotter fold so that after the air once becomes the air supplied to the flame, the hotter the 70 heated within the manifold, the hot air, in flame, as the combustion is more nearly perexpanding, strikes the vanes of the rotor and feet and there is an explosion of the .particles causes the same to rotate at a high rate of of the oil rather than a burning. In the speed. At the same time, the oil for the above construction, therefore,Inot only proburner is being rapidly heated, partly volavided the pre-heated air, but I also use it to 7 tilized and flows against the under surface drive the rotor. of the rotor where the centrifugal action of Still another object of the invention is to the rotor distributes the oil in a partly liquid provide an oil burner consisting of a miniand partly gaseous state into the atmosphere. mum number of parts wherein. automatic Here it readily ignites and produces a very means are provided for centrifugally distrib: h t, fl uting the partly volatilized oil, and wherein One of the drawbacks common in several a part of this means, that is, the small rotor,

' 80 forms of oil burners-now on the market is may be quickly removed when desired to that mechanical means have to be provided clean the same. to atomize or spray the oil to be consumed With these and other objects in view, the and these mechanical means in turn are invention consists in certain new and novel driven in many instances by electrical means, arrangements and combination of parts as 35 or in other words, by a motor. If electrical will be hereinafter more fully described and means are not used to drive the mechanical pointed out in the claims.

means, some other form of power is found Referring now to the drawings showing a necessary, as there must be a spraying or tpreferred embodiment and a slightly modiatomizing of the oil so that the combinaed form of rotor, and cooperating part of tion will be as nearly perfect as possible to the manifold, provide a hot flame and at the same time Fig. 1 is a view partly in section and partly prevent the formation of carbon either about in elevation showing my improved oil burnthe furnace or about the oil burner itself. er installed in a furnace.

Still another object, therefore, of the in- Fig. 2 is a transverse sectional view on a 45 vention is to rovide an 011 burner which is larger scale showing the arrangement of the so arranged t at the oil is distributed about nozzle, rotor and manifol the under surface of a rotor by capillary at- Fig. 3 is a cross sectional view of the manitraction, and the rotor in turn is driven fold showing the base of the burner and the wholly by expanding the air in the manifold nozzle located beneath the manifold.

50 directed to said rotor. Fig. 4 is a sectional view of the nozzle Still another object of the invention is to taken on line 4-4 of Fig. 2.

provide a nozzle in which there is located a Fig. 5 is a similar view taken on line '5- 5 106 small rotor for distributing the oil, and. beof Fig. 2.

Fig. 6 is a bottom view of the manifold showing the vanes for guiding the hot air to the rotor.

Fig. 7 is a small detail section of the manifold.

Fig. 8 is a plan view of the base of the oil burner showing the rotor extending within said base.

Fig. 9 is a longitudinal SGCtIODZIl VIQW of the base with the nozzle and rotor removed.

Fig. 10 is a transverse sectional view of the base taken on line 1010 of Fig. 8.

Fig. 11 is a detailed sideelevation of the rotor.

Fig. 12 is a top plan View of a nipple fitting within the nozzle.

Fig. 13 is a side elevation of the same.

Fig. 14 is a plan view of the nozzle.

Fig. 15 is a side elevation of the nozzle, and

Fig. 16 is a vertical section of a slightly modified form of manifold and rotor.

Referring now more particularly to the several views, and to Fig. 1 in part cular, I have shown the fragmentary outline of a furnace 1 having the grate bars 2 over which is placed a small metal plate 3 on which in turn is placed a small layer of noncombustible material 4 and the latter then covered by a bank of sand. The metal plate 3 is also shaped to form the large central draft pipe 5 through which the air passes to the burner about to be described.

On the top of this bank of sand may be a small layer of cement such as shown at 6,, while firebricks 7 are placed around the interior of the furnace.

Oil supply.

Before describing the burner in particular, reference will be made to the manner of supplying oil to the same, and in Fig. 1 there is shown a supply tank 8 properly supported as at 9, and from this tank a main supply line 10 is shown, a filter 11 being shown in the line near the tank to prevent any of the impurities from reaching the burner. Also, in this main line 10 there is a control valve 12, the line then extending to a nipple 13 tom which is a somewhat larger pi e 14 extending upwardly and is threadec within the nozzle 15 of the burner.

The pipe 14 being larger in diameter than the pipe 10 and the nipple 13 having an internal diameter greater than either of these supply pipes, the oil will slow up in its movement when reaching thenipple and allow any sediment which may have passed the be dropped in a small sump pipe 16 which pipe may be cleaned by removing the cap 17 when necessary.

It is to be understood that the oil supply arrangement asshown at 8 is the one preferred where a large tank may be kept within the cellar, but if the Underwriters laws make it necessary to have thetank in the yard, I may employ a standard type of vacu um system for supplying the necessary 011 to the burner.

\Vithin the main line 10 there is placed the standard form of automatic cut out 18 on which hangs the little bucket 19 so that if the oil should fail to burn, the overflow into the bucket will automatically shut off the main supply.

Base of burner.

Referring now to Figs. 8, 9 and 10 for the moment, there is shown what I term the base of the burner which is properly set over the draft pipe 5, while the cement 6 contacts with and seals the base in its proper position as shown in Figs. 1 and 2.

This base 20 is preferably a dish-shaped iron or steel casting, and in the drawings this is shown as substantially oval, although itmay be made circular in outline if desired. At its opposite ends, in the upper surface are the openings 21, and as may be seen in Figs. 9 and 10, these openings have the upstanding rims or flanges 22 formed thereon for the reception of the ends of a manifold 29 shortly to be described. This base, as mentioned, is dished to form the central basin 23 wl formed the above the lower surface of the basin 23 and also extends below the lower edge of the side rim 25 of the base.

By forming the base of the burner in this manner. a certain amount of oil may be centrally placed within the base. or rather within the chamber 23, and ignited to start the operation of the furnace. To limit the height to which this oil may rise within the chamber, 1 provide an overflow opening 26 which is connected with the pipe 27 which in turn extends to the bucket 19 heretofore referred to. A little cap 28 fits within this opening 26 and is so arranged that oil may flow under this cap and into the opening 26 when the oil reaches the level of the underportion of the cap.

As before n'ientioned, this opening 26 and the automatic cut off valve are for emergency purposes only, so that in case of an accident to the burner or the oil failing to ignite. the main supply pipe will be automatically cut off.

The length of the 'base 20 and the diameter of the draft pipe 5 are so proportioned that the incoming air will flow up through the openin 's 21 in the burner and up into the manifo d 29 as may be seen in several of the figures.

31 anifold.

The manifold 29 is also a steel or iron casting, oblong in shape, its length corresponding to the length of the base 20, but

.within the opening.

its width is much less than the width of the base so that the burning oil within the chamber 23 will pass upwardly and around this manifold to rapidly heat the air within it.

Figures 2 and 3 show respectively a longitudinal and cross section of the manifold, and it will be noticed that the openings 30 at the opposite ends of this manifold are similar in shape to the openings 21 formed in the base, and small cooperating flanges 31 are provided to tightly fit about the flanges 22 of the aforementioned openings 21 of the base 20.

Centrally of the manifold and in its bottom surface, there is formed the opening 32, which opening is elevated with respect to the openings at the respective ends of the manifolds, while the internal shape of the entire manifold is such that it will direct the expanding air to the central opening. About this central opening I provide the plurality of vanes 32 and these vanes may be integral or loose vanes might be properly mounted In either event, they are pitched so. as to direct the heated air to the vanes of a rotor shortly to be described.

To strengthen the manifold throughout its length, I provide a central rib 33 which extends both across the under internal surface of the manifold as wellas across the outer top surface of the manifold. This rib merges with the integral handle on the top of the manifold.-

It will also be noticed that the inner upper surface of the manifold extends downwardly by casting the walls 35 as shown, and the apex of the deflection is directly above the central opening in the bottom of the manifold.

A slightly different form of manifold is shown in Fig. 16 which will be described more in detail as the spccification proceeds.

34 formed Nozzle and rotor.

Refering'now to the aforementioned nozzle 15 and its cooperating parts, it will be seen (Fig. 15) that the nozzle is provided on its outer surface with a plurality of spacer ribs 36 which merge with the integral head 37. This head has a central cut out portion 38 and from its uppermost edge the head slopes gradually downwardly as may be seen at 39 and merges with the circular flange 40.

The nozzle at its lower end is provided with a threaded opening 41 and dropped within the nozzle is a small disc 42 with the holes 43.therein while in the center of the disc is the small pintle or pivot pin 44 on which rotates the shaft 45 of the rotor 46.

Referring again to the nozzle and at the oint where the stem merges with the head, it will be noticed that the head is provided with an annular seat 47 for the repe tion of a nipple 48. This nipple 48 is pro'vi ed with a; cooperating seat 49, an upper body portron 50 and the upper flange 51. This nipple 48 is then placed within the nozzle 15, as may be clearly seen in Fig. 2, and the cut out portion 38 of the nozzle together with he upper portion of the nipple, forms the annular chamber 52, to which water or steam is led by the pipe 53 extending to the bottom of a tank 54. This pipe passes upwardly along the nozzle 15 and between the spaced ribs 36 (Fig. 14) so that the water will be partly. heated as it passes to its annular chamber.

The peripheral nipple 48 is provided with little nitches 55, so that as the water within the chamber 52 is transformed into steam, it may pass outwardly through these little nitches 55 directly beneath the rotor 46. It might be here mentioned that the nozzle 15 fits snugly within the circular hub 24 of the base 20,

the spacer ribs 36 contacting with the side walls of the hub 24 allowing the cool air to pass upwardly about the stem of the nozzle 15.

Fitting within the nipple 48 is the ball race 56, thus providing a ball bearing surface for the shaft 45 near its upper end, while the pintle forms the bearing lower end.

edge of the rim 51 of the i for the A part of the main pipe 14 is threaded within the lower end of the nozzle and the oil flows upwardly through the holes 43 in the disc 42, thus lubricating the pintle 44, and, as the internal diameter of the nipple 48 is greater than the external diameter of the shaft 45, the oil passes upwardly around the shaft, lubricates the ball race 56, and then capillary attraction causes the oil to travel up the hub of the rotor and partly along the under surface of the rotor.

The upper flange 51 of the nipple and the sloping walls 39 of the head 37 of the steam direct any oil which may, in its liquid state drop to fall within the chamber 23 of the base 20 to be burned, rather than allow it to leak back into the nozzle.

Mounted on the top of the stem of the shaft 45 is the heretobefore mentioned rotor 46, and this rotor is preferably a bronze casting consisting of a hub 57 inv which passes the threaded end of the shaft 45.

The body portion 58 of the rotor is disclike in shape and slopes from the hub downwardly and outwardly, its diameter being ill) substantially the diameter of the head of the I ride a plurality of integral vanes 59, which are preferably slightly curved, so that these vanes will cooperate with the vanes 32- in the manifold 29 as heretofore mentioned.

These vanes 59, as may be seen in Figs. 1, 2 and 11. have their outer edges perpendicular to the base of the rotor, while their upper edges present a plane surface so that there is very little space between the upper edges of the vanes and the opening 30 in the manifold. Thus, the full effect is obtained from the air rushing from the manifold to the vanes of the rotor. The shape of the body portion of the rotor is highly important. It will he noticed that there is a gradual slope to the body portion and this is provided so that the oil will not be thrown from the rotor until the oil has reached the outer peripheral edge. The centrifugal force causes the oil to cling to the surface until it has fed to a plane parallel to the peripheral edge of the rotor where it will he released at the highest rate of speed. In actual practice the oil will be seen to ignite about one inch from the edge of the rotor.

Referring now form of rotor and to the slightly modified the central opening of the n'ianifol'd. as shown in Fig. 1G, in this instance. a rotor shaft is threaded within the hub 61 of the rotor. the rotor in this instance being more in the shape of a spear head, that is, the center portion extended upwardly to a point and the slope of the head is much sharper than in the former instance. Likewise the upper edges of the vanes 62 incline sharply towards the apex 63.

The central portion of the manifold has the oppositely arranged openings 64 whilethe dividing walls 65 of these openings incline at an angle similar to the angle of the upper edge of the vanes 62. Similar to the preferred form the cool air will enter the manifold from its opposite end and as the air is heated by the flame, it will he deflected )y the walls 66 centrally of the manifold and pass downwardly through the opening 64.- directly against the vanes 62 of the rotor to cause the same to rotate at a high rate of speed.

Water feed.

Referring for the moment to the tank 51 for supplying the water, there is shown a float valve 67 so that the water in the tank is autonnitically cut oil when it reaches a certain height. I also position a needle valve 68 in this water line, so the amount of water which flows to the annular chamber 52 may be regulated.

This is necessary as the water in the annular chamber 52 and in the small pipe just helow the same, may heat very rapidly and if too much steam should escape from without this chamber, it would interfere with the burning of the oil. As will be appreciated, as

this arrangement of the water and its conversion to steam is to improve the combustion and furthermore is to prevent carbon from forming on the under surface of the rotor and upon the upper flange 51 of the nipple.

If carbon were allowed to-form on the under surface of the rotor or upon the nipple, it, in time, would be so built up that it would interfere with the free rotation of the shaft and. its rotor.

It will be appreciated at this time also that any other similar manner might be used for forcing a jet of steam from the water line to the. under surface of the rotor.

Operation 0 f burner;

The operation of the oil burner isexceedingly simple and the procedure would be substantially as follows The control valve 12 would be turned so that a small amount of oil would be allowed to flow from the main supply line upwardly through the nozzle and collect in the chamber 23 of the base.

' I have not shown any special means of first igniting this oil, although any desired form may be used. In the past a small piece of ragor cloth, or waste is lighted and then thrown into the base 20 and allowed in turn to ignite the oil in the chamber 23.

After the oil has burned for a short time, the air in the manifold 29 becomes heated, expands and moves towards the center of the manifold and downwardly through the central opening 32, and in its passage will be deflected by the vanes 32 and strike the vanes 59 of the rotor 46. The hot air will cause the rotor to at first revolve slowly and then gain in speed until it reaches its maximum rotation. In the meantime, a draft is created upwardly through the pipe 5 to supply the air for the flame and tosupply the air to be heated to the manifold.

After the oil is ignited in the basin, the heat will also cause the oil which has flowed upwardly into the nozzle 15 to rise in temperature and to partly volatilize and this oil of the rotor, causes the oil gasto be thrown outwardly in a whirlmg motion, thus mixing it with the air and readily igniting to burn with a very hot flame.

This flame also surrounds the manifold so a constant source of hot air actuates the rotor. Of course the heatedair mixed with the gas and oil furnishes a nearly perfect combustible fuel. This hot flame is made possible by the preheating of the air to a very high temperature as in reality the mixing of the preheated air causes an explosion of the fuel and air rather than a slow burn- 1ng.-

At the sau'ie time water is being supplied from the tank 54 and as it rises in the pipe line to its annular chamber 52 it becomes heated and escapes as steam against the under side of the rotor to keep the same from carbonizing and also helps the oil to burn with more perfect combustion. By heating the air, using steam and using the rotor, it is possible to use a very low grade of oil with good results.

The control valve 12 may be regulated to provide the desired amount of fuel to the oil burner, tothus regulate the amount of heat from the burner. If for any reason the pipe line should become momentarily stopped up and the flame extinguished, and the oil should then again start to flow, the overflow in the chamber 23 would flow to the little bucket 19 and automatically shut off the fuel supply.

By placing the little ribs 36 about the stem of the nozzle, the cool air may pass upwardly around the nozzle and prevent it from overheating.

If the manifold is designed as shown in Fig. 16, and the rotor is shaped as also shown in this view, the operation will of course be the same as in the preferred form, the purpose in both forms being to utilize to the greatest advantage the heating area of the manifold and the hot air expanding in the manifold to thus supply the oxygen to the fuel and also drive the rotor for the atomization pf the fuel.

If, for any reason, the rotor after months of service should become carbonized on its bottom surface, a bar may be placed under the handle 34: of the manifold and the manifold body removed from the base. The rotor may then be drawn from without its nozzle, quickly cleaned and replaced. The manifold will then be set in its operative position and the oil burner again ready for use.

It will thus be seen that it is but a matter of a few minutes to clean the .burner if itlrecomes necessary and that there is only one moving part in the whole burner which may be cleaned or even replaced if the same should become damaged.

From the foregoing it will be seen that I have provided an extremely simple and efficient form of oil burner consisting primarily of but three parts, to wit, a base, formed of a simple metal casting, a. manifold, another simple form of casting, and a nozzle with a rotor therein. Any of these parts mav berenwcd if they should become worn and any of the parts may be removed if found necessary.

Again, the carbonization of the rotor, and at thesame time, these means, that is, a jet of steam, adds to the combustible mixture.

Finally, by superheating the air the fuel burns more readily and more rapidly, thus fin-ming a more perfect mixture and preventing any soot or odor forming within the furnace.

Many slight changes might be made without in any way departing from the spirit and scope of my invention.

Having thus described the invention, I claim as new and desire to secure by Letters Patent is: p

1. An oil burner comprising a base, a manifold cooperating with said base, a nozzle provided with a rotor in said base, vanes on said rotor, said manifold arranged. to direct the hot air to said vanes for operating said rotor and means for supplying oil to the undersurface of said rotor to be there expelled in a whirling manner.

2. An oil burner comprising a base, a manifold cooperating with said base, a nozzle mounted in said base, a rotor Within said nozzle, vanes in said rotor, said manifold provided with an opening over said vanes for directing air to said rotor as the air within the manifold is heated to thereby operate the rotor, and said nozzle arranged to permit the fuel to be supplied to the under portion of said rotor and to be distributed by the whirling action of said rotor.

3. An oil burner comprising a base having openings near its opposite ends, a manifold also having openings at its opposite ends and cooperating with the openings. in the base, said manifold provided with a cenmeans are shown for preventing what i tral opening. a nozzle mounted in said base,

a rotor within said nozzle, vanes on said rotor, and said rotor positioned directly beneath the central opening in said manifold, the hot air from the manifold operating said rotor, and said nozzle arranged to permit the fuel to be supplied to the bottom surface of the rotor and to be distributed by the operation of said rotor.

4. An oil burner comprising a base having openings therein, a manifold having openings for cooperating with the openings in the base, said manifold provided'with a further opening, a nozzle mounted in said base, a rotor'within said nozzle having vanes thereon and positioned directly hen n1. further opening in said manifold, air from the manifold operating said and the said nozzle'arranged to per 't the fuel to be supplied to the under cc of said rotor and to be thrown ou'ftw the action of said rotor.

5. An oil burner comprising i. ing openings therein, a manifoldopenings cooperating with the openings in f in surface the base, said manifold provided with a central opening, said manlfold being less n width than the width of the base, a nozzle n said base, a rotor within said nozzle positioncd directly beneath the central opening in said manifold, vanes on said rotor, the hot air flowing from the manifold operating the said rotor. and the said nozzle arranged to permit the fuel to be supplied to the under of said rotor and to be whirled tangentially by the action of said rotor.

6. An oil burner comprising a base having openings near its opposite ends, a chamber formed in said base, said chamber provided with an opening therein, a nozzle resting within the opening in the chambenof the base, a manifold having openings at ts opposite ends cooperating with the openings n said base and provided with an opening in its under portion directly over said nozzle, the 'idth of the manifold being less than the width of the base so that the flame from the burner will surround said manifold, a rotor within said nozzle, vanes on said rotor, means for supplying oil to the undersurface of said rotor and through said nozzle, and

the expanding air within the manifold ro-' tating said nozzle to distribute the oil in a whirling action.

7. An oil burner comprising a base having a central chamber for holding a small amount of oil, the said chamber provlded with an opening therein, the opening extending above the lower level of said chamber, a nozzle supported within said opening, a r otor having vanes thereon mounted within said nozzle, the said base also provided with openings near its opposite ends and a memfold coo crating with said base and having a centra opening directly over said rotor, means for supplying oil through the nozzle to the undersurface of said rotor and the expanding air within the manifold operating said rotor to whirlingly distribute the Oll to be burned. Y 8. An oil burner comprising a base, a

.manifold mounted on said base, a nozzle mounted in said base and having a rotor therein, vanes on said rotor, the under-surface ofthe manifold provided with an opening direct-ly above said rotor and vanes within the opening for directing the expanding air to the vanes of said rotor, means for supplying oil to the undersurface of said rotor, means for supplying air to said manifold, and the operation of said rotor distributing the oil in a whirling manner.

9. An oil burner comprising a base having openings therein, a manifold having openings at its opposite ends and registering with the openings in said base, a chamber provided with an opening formed in said base, anozzle mounted within said opening, a rotor mounted in said nozzle, vanes on said rotor, the manifold provided with an opening therein directly over said rotor, the walls within'thc manifold converging to direct the expanding air to the vanes of said rotor for operating-the same, the said base arranged to permit fresh air to be supplied to said man fold, and the nozzle arranged to permit the fuel to contact with the undersurface of said rotor and to be whirlingly distributed by said rotor.

10. An oil burner comprising a base having openings therein, a manifold having openings cooperating with the openmgs 1n the base, a nozzle extending upwardly from the base and the manifold having an opening extending directly over the said nozzle, said nozzle provided with a head having downwardly sloping walls, a rotor provided with vanes within the nozzle adapted to be driven by the hot air of the manifold, the nozzle provided with an opening in its bottom for the reception of the oil, and the oil adapted to flow upwardly against the underside of the rotor and to be whirlingly distributed by the same.

11. An oil burner comprising a base having openings therein, an open chamber formed in the base for the reception of a small amount of oil, said chamber provided with a hollow hub, a nozzle fitting within the hub, the head of which extends downwardly and outwardly beyond the rim of the hollow hub, a rotor having vanes mounted within the nozzle, a manifold cooperating with the base and having an opening in its under surface directl above the rotor, the hot air from the manifold adapted to actuate said rotor, and means for feeding the oil through the nozzle to the said rotor to whirlingly distribute the oil to be burned.

12. An oil burner comprising a base hav ing openings near its ends, an open chamber formed within the base and having a hollow hub extending upwardly therein, a nozzle fitting within said hub and-the head of the nozzle extending beyond the wall of the hub in said chamber, a. manifold cooperating with the base to furnish hot air to actuate a rotor, a rotor fitting within said nozzle and the head of the rotor conver ing slightly downwardly and outwardly to leave a space between the end of the nozzle and the end of the rotor, vanes on the upper surface of said rotor, the space decreasing from the outermost edges of the rotor and head towards the hub of the rotor, said rotor provided with a shaft and the fuel adapted to [low upwardly around said shaft to the under surface of the rotor and there be distributed in a whirling action by the action of the rotor.

13. In an oil burner comprising a base, a manifold cooperating with said base, a nozzle provided with a rotor extending within said base, vanes on said rotor, said manifold arranged to direct the hot air to the vanes of said rotor for actuating the same, means for supplying fuel to the under surface of said rotor to there be expelled in a whirling manner, and means for directiong a small amount of steam against the rotor to prevent the carbonization of the same.

14. An oil burner comprisin a base, a manifold cooperating with said ase, a nozzle extending upwardly in said base under said manifold and a rotor having vanes thereon within said nozzle, said manifold arranged todeflect the expanding air in said nozzle for actuating the rotor, said nozzle arranged to permit the oil to rise against the under surface of said rotor and to be expelled therefrom in a whirling manner by the action of the said rotor, the said nozzle further provided with means for allowing a plurality'of j'ets of steam to also strike the under surface of said rotor to thereby prevent the rotor from; carbonizing and to a to the combustibility of the fuel.

15. Anoilburner comprising a base, a manifold cooperating with said base and having an opening in its underneath portion and centrally thereof, a nozzle extending upwardly within the base, a rotor having vanes therenear its upper end, spacing on in said nozzle directly under the opening in said manifold, said rotor actuated by the heated air in said manifold, the nozzle arranged to permit oil to flow upwardly against the under surface of said rotor and to be expelled therefrom by the whirling action of said rotor, said nozzle provided with a small chamber, and means for supplying the chamber with water'so that as the water is vaporized it willstrike the underside of the rotor to prevent the same from carbonizin 16. In an oil burner, a nozzle having an opening in its lower end and an enlarged head at the other end, a rotor having vanes thereon within saidnozzle having a shaft sup orted at its bottom end in said nozzle, means within said nozzle for supporting the rotor lugs on the nozzle for supporting the nozzle in a base and allowing cold air to pass upwardly around said nozzle, an annular chamber formed" in the head of said nozzle, a nipple fitting within the nozzle and forming a cover for said chamber and having its edges serrated to from said chamber,

form small passageways and adapted to allow steam to flow against the under side of said rotor, a manifold cothe rotor and the heated air operating with passing through said manifold operating said rotor.

l7. ln an oil burner, a nozzle, a shaft rotatively supported in said nozzle and having a rotor at its outer end, vanes on said rotor, said nozzle having a head formed therein, the upper outer surfaces of the head sloping downwardly, an annular recess portion formed internally of the head, a nipple fit ting within said recess portion and forming a chamber with said annular recess, the nipple having its edges indented to form passageways from said chamber, the fuel adapted to rise in said nozzle and flow against the under surface of said rotor, and the small passageways in said nipple adapted to direct the steam formed in said chamber. against the under surface of said rotor, a manifold cooperating with said rotor and the hot air passing through said manifold operating said rotor.

18. In an oil burner, a nozzle, a shaft rotatively supported in said nozzle andhaving a rotor head at its outer end, vanes on said rotor, the nozzle also provided with a head and the space between the under surface of the rotor and the nozzle head increasing from the centers outwardly, the nozzle arranged to permit fuel to flow upwardlyand to be discharged by the whirling action of said rotor, and means formed in the nozzle for allowing water to be forced against the under side of the rotor in the form of vapor, a manifold having an outlet directly over said rotor and the hot air passing through said manifold operating the rotor.

19. In an oil burner, a nozzle, a shaft rotatively supported in said nozzle and having a rotor with vanes thereon at its outer end, the vanes of the rotor being on the upper surface thereof, the nozzle provided with a head having outwardly and downwardly extending walls, the nozzle and shaft arranged so that the fuel may pass through said nozzle and against the under surface of said rotor, and a further passageway formed in the head of said nozzle for permitting a jet of steam to be directed against the undersurface of said rotor to prevent the same and the nozzle head from carbonizing.

20. In an oil burner, a nozzle, the head of which extends outwardly and downwardly and is provided at its outer edge with a downwardly extending rim, a rotor shaft mounted in said nozzle, shaft, said rotor head sloping downwardly and outwardly and its outer edges extending in a horizontal plane,-the under surface of the rotor being slightly spaced from the head of said nozzle while the shaft is so mounted in the nozzle as to permit oil to rise upwardly around said shaftiand to the undersurface of said rotor, and said nozzle further provided with a passageway adapted to allow a jet of steam to be forced against the under side of said rotor.

eras oil burner comprising a base having a hollow hub, a nozzle having spacer ribs formed on its outer periphery, and fitting within said hollow hub and allowing air to pass between the hub and said nozzle for cooling the same, said nozzle having a head with its edges extending beyond the walls of the hollow hub, a. rotor pivotally mounted within said nozzle, vanes on said rotor, a 130 rotor, the hot air manifold cooperating with the-base and rotor for actuating the latter, the shaft and the head of the rotor so arranged with respect to the nozzle that the fuel may flow around the shaft and upwardly against the under surface of said rotor, means for supplying oil to the nozzle and means for supplying water to the nozzle to be transferred into vapor to thereby prevent carbonization of the nozzle and rotor.

22. An oil burner a rotor with vanes on its upper surface, an oil supply for said nozzle, the oil adapted to flow upwardly-to the under surface of said rotor, a manifold above said rotor, having an opening cooperating with the vanes of said rotor, the heated air passing through manifold comprising the means for driving said rotor, and the oil being thrown outwardly by the action of said rotor.

23. An Oll burner comprising a nozzle and a rotor having vanes thereon, a fuel supply for said nozzle, a manifold having an opening therein directly'above the vanes of said passing through said manifold actuating-the said rotor and also heat ing the oil about the nozzle, the oil adapted to flow upwardly and contact. with the under surface of said rotor and to be whirlingly thrown outwardly.

24. An oil burner comprising a nozzle, a rotor having vaneson its upper surface, the shaft of the rotor fitting within said nozzle, a fuel supp y to said nozzle, a manifold located above the rotor and having an opening directed to the vanes of said rotor and the heated air passing through said manifold driving said rotor, flow along the under surface of said rotor to be whirlingly thrown outwardly, said nozzle provided with a chamber for the reception of water, a feed line to said chamber and the heat from the burner adapted to vaporize the water to mix with the atomized oil. s

25. In an oil burner, a base, a manifold cooperating with said base, a nozzle provided with a rotor having vanes thereon in said base, said manifold arranged to direct the hot air from said manifod to said rotor, means for supplying the oil to the nozzle, and the oil by capillary attraction rising on the under surface of said rotor to be there expelled in a whirling manner.

26. An oil burner comprising a base, a manifold cooperating with said base, a nozzle provided with a rotor having vanes thereon in said base, said manifold arranged to direct its heated air to said rotor, means for supplying oil to said nozz e and the oil adapted to flow upwardly beyond-the end of said nozzle and partly out on the under surface of the rotor by capillary attraction and be thrown from the under surface of said rotor by the whirling action of said rotor.

comprising a nozzle and the oil adapted to surface of said rotor 27. An oil burner comprisin a base having openings therein, a manifo d resting on said base and cooperating with said openings, a nozzle having a rotor fitting therein, vanes on said rotor. and the manifold discharging air against ,said vanes, said rotor capable of revolving at a high rate of speed, means for supplying oil to the nozzle, and the oil adapted to travel upwardly and slightly outwardly by capillar' attraction, and the under surface of the rotor sloping downwardly so that the oil will not be thrown outwardly by centrifugal force until the oil has reached the outer peripheral edge of said rotor.

28. An oil burner comprising a base, a manifold resting on said base, a nozze mounted in the base, a rotor within said nozzle and having vanes thereon, said manir fold discharging air against said vanes to operate said rotor,said manifold also 'supplying preheated air to the flame, means for supplying air to the nozzle and the oil flowing upwardly on the under surface of the rotor by capillary attraction, the under surface of the rotor being anticlinal so that the oil will not leave the rotor until it has reached the outer peripheral edge of said rotor, and said rotor capable of travelling at a high rate of speed to thereby atomize and whirl the oil into the preheated air.

29. An oil burner comprising a base, a quickly detachable manifold resting on and cooperating with said base, a nozzle resting within said base and a rotor having vanes thereon fitting within said nozzle and quickly removable when said manifold is removed, the said manifold having an opening cooperating with the vanes of said rotor, anoil supply for feeding oil. to the under and the heated air passing through the manifold striking said vanes to thereby cause the rotor to operate and'expel the 0.1 in a whirling. manner.

30. An oil burner comprising a base, a manifold resting on said base and quickly removable therefrom, a nozzle resting in said base, an oil supply connected with said nozzle, a rotor having vanes on its upper surfaceand the inanifo d having an opening registering with the "ants of said rotor. a, downwardly extending shaft fitting within said nozzle, the said rotor being capable of odily removal when said manifold is removed from the base, the oil from the nozzle adapted to flow on the under surface of said. rotor and the heated air passing through the manifold operating said rotor to whirlingly discharge the oil from said rotor.

31. An oil burner comprising a base, a manifold resting on said base cooperating therewith and capalfe of instant removal, a nozzle fitting within said base, a rotor having a shaft pivotally mounted at its lower 32. A rotor for an oil burner, means for feeding oil to the under surface of said rotor, the head of the rotor having anticlinal walls so that capillary attraction will draw the oil partly along the under surface of the rotor head, vanes on the upper surface of said rotor, and means for directly expanding air against said vanes to revolve said rotor to thereby force the oil from the under surface of the rotor by centrifugal force.

In testimony whereof I aflix my signature.

WILLIAM E. WINE.