TW201515692A - Oil and water mixing device - Google Patents

Abstract

An oil and water mixing device comprises a main valve seat and an oil valve seat connected with both sides of the main valve seat and a water valve seat, where a valve device with an swing lever is equipped inside of the main valve seat and a decoder is bridle-jointed with the outside of the main valve seat, and an oil valve seat which is electrically connected with the decoder and the first servo motor and the second servo motor which are bridle-jointed with the outside of the water valve seat. When the burner is in the combustion process and the valve device senses the different inside pressures of the oil and water mixing device to make the swing lever move and the valve channel be closed small or opened large, simultaneously after the decoder is rotated and decoded, the decoder is electrically connected with the first servo motor, where the inside of the oil valve seat of the first servo motor is equipped with an intake port module to adjust the outlet port small or large, and the second servo motor, where the water valve seat of the second servo motor is equipped with an inflow module to adjust the outlet port small or large, so that the needed flow of oil and water can be controlled to let the device be able to obtain a better oil and water mixing state for combustion stability.

Description

Oil-water mixing device

The invention relates to an oil-water mixing device, in particular to a flow rate which can be controlled to obtain oil and water, so that the oil and water are more uniformly mixed to provide combustion stability.

Currently used in oil-water mixing to provide a system flow for combustion, the oil (such as diesel, heavy oil and other combustible oils) is first put into a heating device, the oil is heated to the required temperature, and then provided with water according to the needs The burning ratio enters a water-oil ratio device, and then sent to an oil-water mixing device for mixing and mixing, and the mixed oil water enters an oil-water mixing heating device, the purpose of which is to heat the temperature of the mixed oil water to reach a combustible temperature, wherein a small one Some of them provide burner small-fire combustion first, and most of them provide burner fire. The burner fire is ignited by a small fire.
The above-mentioned similar oil-water mixing providing combustion system has a water-oil ratio device and a water-oil mixing device, wherein the oil-water ratio device has a water-oil ratio tank, and the oil-water ratio tank uses a pneumatic cylinder to make the piston pump water and oil ratio, and then water, The oil is pushed out by the piston and enters the oil-water mixing device via the water-oil delivery pipe to be stirred and mixed.
However, it is checked that the proportion of the oil-water proportional tank of the oil-water ratio device to the oil and water is extracted, and the oil-water ratio device is more accurate for the extraction of oil and water, and the pressure generated in the combustion system is constantly changing during the combustion. The device can not buffer the ratio of oil and water, it is difficult to achieve a more stable combustion requirement, the combustion is incomplete, the combustion efficiency is also poor, and the equipment cost required for the oil-water ratio device is also high.

The object of the present invention is to improve the traditional oil-water mixing device, and the oil and water flow rate cannot be changed according to the internal pressure change when the combustion system is burned, and it is difficult to achieve more precise combustion, and the combustion is unstable, and the like, and the oil-water mixing device is provided. It can control the flow rate required for oil and water, and make the oil-water mixing device mix again to provide combustion stability.
The object of the present invention and solving the technical problems thereof are achieved by the following technical solutions. According to the present invention, there is provided a water-oil mixing device comprising a main valve body seat, an oil valve body seat and a water valve body seat, and a valve device externally engaging a decoder is disposed through the main valve body seat. The first valve motor is externally engaged with the oil valve body seat, and a second servo motor is externally engaged with the water valve body seat to control oil and water to enter an optimal combustion stable flow rate, while the burner is in the combustion process When the valve device senses the internal pressure of the oil-water mixing device to move the swinging rod and close or open the valve passage, the rotating decoder interprets and electrically connects the interior of the oil valve body of the first servo motor. An inlet for adjusting the oil inlet assembly is adjusted to be small or large, and an outlet of the water valve body of the second servo motor is provided with an outlet for adjusting the water inlet assembly to be small or large, and the oil and water can be controlled. The flow rate allows the oil to be more evenly mixed to provide stable combustion.
With the oil-water mixing device described above, the following effects can be achieved mainly:
The invention provides a simple oil-water mixing device, which is provided with a valve device inside the main valve body seat and externally coupled with a decoder. The valve device moves the swing rod and the valve by sensing the internal pressure of the oil-water mixing device. When the channel is closed or opened, the inlet of the oil valve body of the first servo motor is electrically adjusted to be small or enlarged, and the outlet of the water valve body of the second servo motor is adjusted to be small. Or increase the size, the oil quantity or the water flow can be separately controlled, thereby avoiding excessive oil quantity in the oil inlet passage and the oil body inlet and outlet passage and excessive water flow in the outlet and the water inlet passage, resulting in uneven mixing of oil and water, and the decoder is passed through the decoder. And the first and second servo motors respectively connected electrically can effectively control the amount of oil or water flow, so as to save unnecessary resources and cost.

1‧‧‧ Oil-water mixing device
2‧‧‧Main valve body seat
21‧‧‧ body
211‧‧‧ Space
212‧‧‧ Entrance Channel
213‧‧‧Exit channel
214‧‧‧Fixed holes
215‧‧‧Lock hole
22‧‧‧ fixed body
221‧‧‧ buried hole
23‧‧‧Set of solids
230‧‧‧ hole slot
231‧‧‧ valve passage
232‧‧‧ diagonal channel
233‧‧‧ slant line
234‧‧‧ concave arc
236‧‧‧ arc slot
237‧‧‧ holes
24‧‧‧ cover
240‧‧‧ accommodating slots
241‧‧‧ embedded solid
242‧‧‧ screw holes
243‧‧‧Spiral hole
244‧‧‧ screws
25‧‧‧ valve device
251‧‧‧swing rod
2510‧‧‧Axis hole
2511‧‧‧Bumping
2512‧‧‧ pendulum
2513‧‧‧Arc Guides
252‧‧‧ first block
2521‧‧ ‧ convex
2522‧‧‧Inner hole
253‧‧‧Second body
2531‧‧‧first groove
2532‧‧‧second groove
2533‧‧‧Threaded holes
2534‧‧‧ring pad
2535‧‧‧First mat
2536‧‧‧Second mat
2537‧‧‧Washers
254‧‧‧ bearing
255‧‧‧ shaft
2551‧‧‧ convex keys
256‧‧‧First gear
26‧‧‧Decoder
261‧‧‧Shaft axis
262‧‧‧second gear
263‧‧‧First chain
3‧‧‧ oil valve seat
31‧‧‧ first group
311‧‧ ‧ room
312, 313‧‧‧ front and rear grooves
314‧‧‧Adjusting screw
315‧‧‧
316‧‧‧ inlet
3161‧‧‧ hole
317‧‧‧ Oil outlet
318‧‧‧ positioning block
3181‧‧‧Perforation
3182‧‧‧ Positioning parts
319‧‧‧ oil passage
32‧‧‧Adjust oil inlet components
321‧‧‧Intake shaft
322, 323‧‧‧ first and second bumps
324‧‧‧ entrance
325‧‧‧ oblique groove
326, 327‧‧ ‧ bearing set
3261‧‧‧ring pad
328‧‧‧Shaft axis
329‧‧‧third gear
33‧‧‧First servo motor
331‧‧‧Shaft axis
332‧‧‧fourth gear
333‧‧‧Second chain
4‧‧‧Water valve seat
41‧‧‧Second group
410‧‧‧ hole
4100‧‧‧ inner screw hole
411‧‧‧First convex
412‧‧‧second convex
4121‧‧‧ screw holes
413‧‧‧ water inlet
414‧‧‧ small set of holes
415‧‧‧ screw
416‧‧‧ Large set of holes
417‧‧‧ base
418‧‧‧ oil body outflow channel
4181‧‧‧Leakproof gasket
419‧‧‧Water inlet channel
4191‧‧‧Water outlet
42‧‧‧Adjust water inlet components
421‧‧‧ Sockets
4210‧‧‧ nuts
4211‧‧ mid-section
4212‧‧‧ convex
4213‧‧‧Long pole
4214‧‧‧ recessed hole
4215‧‧‧Export
4216‧‧‧External screw
4217‧‧‧ class slot
4218‧‧‧ long hole
4219‧‧‧ entrance
422‧‧‧Adjustment rod
4221‧‧‧ screw joint
4222‧‧‧ cone rod
423‧‧‧ Fixed Department
4231‧‧‧ first hole slot
4232‧‧‧Second hole
4233‧‧‧through hole
4234‧‧‧ cushion body
424‧‧‧Shaft shaft
4241‧‧‧Inner hole
4242‧‧‧through hole
4243‧‧‧ oblique arc groove
4244‧‧‧ fifth gear
425‧‧‧ Rod
4251‧‧‧ Round rod
4252‧‧‧External threaded rod
4253‧‧‧ slotted slot
43‧‧‧Second servo motor
431‧‧‧ shaft
432‧‧‧ sixth gear
433‧‧‧third chain
421a‧‧‧ Washer
44‧‧‧fixed screw

Fig. 1 is a perspective exploded view of the oil-water mixing device of the present invention.
Fig. 2 is a perspective view showing the combination of the oil-water mixing device of the present invention.
Fig. 3 is a cross-sectional view taken at the AA position in Fig. 2;
Fig. 4 is a cross-sectional view taken at the BB position in Fig. 3.
Fig. 5 is a perspective view of the oil inlet shaft of the present invention.
Figure 6 is a cross-sectional view of the third figure in the CC position.
Figure 7 is a perspective exploded view of the second block of the water valve body of the present invention and the adjusted water inlet assembly.
Figure 8 is a cross-sectional view of the third figure in the DD position.
Fig. 9 is a schematic view showing the operation of the oil valve body of the present invention.
Fig. 10 is a schematic view showing the operation of the water inlet of the water valve body of the present invention.

Referring to FIG. 1 to FIG. 5, a preferred embodiment of the present invention, the oil-water mixing device 1 includes:
a main valve body seat 2, the main valve body seat 2 comprises a body body 21, a fixed body 22, a set of solids 23, a cover body 24, a valve device 25 and a decoder 26, wherein the front end of the seat body 21 is provided There is a space 211 and an inlet passage 212 and an outlet passage 213 extending through the space 211 and feeding in and out of the space 211, and the seat body 21 is on the inlet passage 212 and the outlet passage 213. The lower end is respectively provided with a plurality of fixing holes 214, and the base body 21 is respectively provided with a plurality of locking holes 215 toward the upper and lower ends of the space 211.
The fixing body 22 is disposed at the rear end of the space 211 of the base body 21, and a plurality of buried holes 221 are respectively disposed outside the fixing body 22.
The set of solids 23 is disposed inside the space 211 of the base body 21 and adjacent to the side of the fixed body 22, and the sleeve solid 23 is provided with a valve passage 231 for feeding in and out and having a small aperture and communicating with the left inlet passage 212. The channel 231 is provided with an oblique channel 232 toward the right side. The upper side of the oblique channel 232 is defined as an inclined line 233, and the lower side is defined as a concave arc 234, and is respectively inclined by a 233, a concave arc 234, and a right end and an exit. The channel 213 is connected to the valve, and the sleeve 23 is disposed adjacent to the valve passage 231 with a hole 230. The right end of the hole 230 is inclined downward to connect with the inclined line 233. The left side of the hole 230 is downwardly facing the valve. A plurality of holes 237 are formed in the upper and lower ends of the hole 23, and a plurality of holes 237 are formed in the upper and lower ends of the sleeve 23, respectively.
The cover body 24 is disposed at the front end of the base body 21. The cover body 24 is provided with a receiving groove 240. The cover body 24 is provided with a solid embedded body 241 at the side of the space 211. The upper and lower ends of the embedded solid body 241 are respectively A plurality of screw holes 242 are defined in the holes 236, and the plurality of fixing members 222 are respectively inserted into the holes 221, and the holes 236 are fixed to the holes 242. The cover 24 is opposite to the other side. A plurality of screw holes 243 are respectively defined in the outer edge, and the plurality of screws 244 are respectively inserted into the screw holes 243 and fixed to the locking holes 215.
The valve device 25 is disposed on the sleeve 23 and the inside of the cover body 24. The valve device 25 includes a swinging rod 251, a first block 252 and a second block 253, two bearings 254, and an axis that are sleeved to each other. a rod 255 and a first gear 256; wherein the swinging rod 251 is disposed inside the hole 230 of the sleeve 23, the swinging rod 251 is provided with a convex portion 2511 having a shaft hole 2510 of a key groove, and the convex portion 2511 is oriented A pendulum rod 2512 is extended to resist the valve passage 231, and an arcuate guide rod 2513 is extended on one side of the swing rod 2512. When the swing rod 2512 can be outward or inward of the concave arc 234 below the oblique passage 232 Moving, while the curved guide bar 2513 can move upward or downward in the arcuate groove 236, the larger valve passage 231 can be opened or the valve passage 231 can be closed; the first block 252 is sleeved on the The inside of the accommodating groove 240 is adjacent to the sleeve 251, and the first block 252 is provided with a reduced convex body 2521 opposite to the other side. The first block 252 is internally provided with a screw hole. 2522; two second sides of the second block 253 are respectively provided with two corresponding first and second grooves 2531, 2532, and in the second block A threaded hole 2533 is formed in the center of the body 253 and penetrates with the first and second grooves 2531 and 2532 respectively. The first groove 2531 is provided with a convex body 2521. The inner hole 2533 is provided with an annular pad 2534. A second pad 2535 is disposed on the outer side of the second recess 2532, and a second pad 2536 is disposed on the outer side of the accommodating slot 240. The outer edge of the second block 253 is provided with a washer 2537. Tightly; one of the bearings 254 is sleeved inside the first groove 2531 and abuts the protrusion 2521. The other bearing 254 is sleeved inside the second groove 2532, and the other bearing 254 is biased by the first pad 2535. The shaft 255 is inserted into the bearing 254, the inner screw hole 2522 and the shaft hole 2510, and the end of the shaft 255 is provided with a convex key 2551 corresponding to the key groove above the shaft hole 2510; the first gear 256 pivot Connected to the outside of the shaft 255.
The decoder 26 is disposed above the base body 21. The decoder 26 extends outwardly with a protruding shaft 261. The outer side of the protruding shaft 261 is pivotally connected to a second gear 262, and the first gear 263 is used to make the second gear. A tangential transmission is formed between the 262 and the first gear 256.
The oil valve body block 3 includes a first block group 31, an adjustment oil inlet assembly 32 and a first servo motor 33, as shown in FIGS. 5 and 6; wherein the first block group 31 is internally provided with a chamber 311. The front and rear ends of the chamber 311 are respectively provided with a front and rear recesses 312 and 313 communicating with the chamber 311. The front end of the front recess 312 of the first block group 31 is provided with an adjusting screw 314 and is disposed at the rear end. a pad body 315 on the inner side of the chamber 311. The left side of the first block group 31 is provided with an oil inlet port 316 for connecting a fuel pipe (not shown), and the right side edge is provided with an oil outlet port corresponding to the oil inlet port 316. 317, a plurality of holes 3161 are connected to the oil supply pipe on both sides of the oil inlet 316 on the left side of the first block group 31, and a positioning block 318 is respectively extended on the upper and lower ends of the right side of the first block group 31. The positioning block 318 is provided with a plurality of through holes 3181 opposite to the fixing holes 214 of the base body 21, and a plurality of positioning members 3182 are respectively inserted into the through holes 3181 and fixedly connected to the fixing holes 214, and the oil inlet port 316 is connected. The oil outlets 317 are respectively tapered toward the inner center and communicate with an oil inlet passage 319. The adjustment oil inlet assembly 32 includes an oil inlet shaft 321 disposed inside the chamber 311. A first and second protruding rods 322 and 323 are respectively extended on the front and rear ends of the oil inlet shaft 321 . A front end of the first protruding rod 322 extends a convex shaft 328 , and the first and second protruding rods 322 and 323 The rod diameter is smaller than the rod diameter of the oil inlet shaft 321 respectively. The outer side of the oil inlet shaft 321 is provided with a tapered inlet 324. The oil inlet shaft 321 is provided with a slant groove on the edge of the adjusting screw 314. 325, the size of the inlet 324 can be adjusted by adjusting the screw 314 to rotate in the inclined groove 325, and a bearing set 326, 327 outside the first and second protruding rods 322, 323, respectively, and a bearing set 326 at the front end. An annular pad 3261 is sleeved on the front surface and is tightly coupled with the first block group 31. A third gear 329 is pivotally connected to the front end of the oil intake shaft 321 . The first servo motor 33 is disposed at the first The fourth servo gear 33 is electrically connected to the decoder 26, and a fourth shaft 332 is pivotally connected to the front end of the first servo motor 33. The fourth gear 332 is connected to the fourth gear 332 by a second chain 333. A meshing transmission is formed with the third gear 329 to notify the inside of the oil valve body 3 by the first servo motor 33 electrically connected to the decoder 26 Adjusting opposite inlet 324 small oil feed assembly 32 is adjusted.
The water valve body block 4 includes a second block group 41, an adjustment water inlet assembly 42 and a second servo motor 43, as shown in Figures 7 and 8; wherein the second block group 41 has a bottom rear end extending outwardly. A first convex portion 411 is disposed on the front end, and a second convex portion 412 is disposed on the front end. The first convex portion 411 is provided with a water inlet hole 413 and a small set of holes 414 communicating with the water inlet hole 413. A screw hole 4121 for screwing a screw 415 is disposed above the second protrusion 412. The second protrusion 412 is internally provided with a large set of holes 416. The large sleeve hole 416 has a larger aperture and is connected to the small hole 414. An oil body outflow passage 418 communicating with the outlet passage 213 of the main valve body seat 2 is disposed inside a base body 417 above the second block group 41, and a water inlet passage 419 is vertically disposed with the oil body outflow passage 418. A water outlet 4191 facing the right side of the water passage 419 and corresponding to the oil body outflow passage 418 is provided with a leakage preventing washer 4181 on the outer periphery of the oil body outflow passage 418 adjacent to the main valve body seat 2 for the main The valve body bases 2 are formed tightly together, and the plurality of holes 4 are respectively provided on the upper and lower ends of the oil body outflow passage 418 of the second block group 41. 10, the end of the hole 410 is respectively provided with an inner screw hole 4100, and a plurality of fixing screws 44 are respectively inserted into the holes 410, and the inner screw holes 4100 are fixed to the fixing holes 214; the adjusting water inlet assembly 42 The utility model comprises a connecting portion 421, an adjusting rod portion 422, a fixing portion 423, a protruding shaft portion 424 and a rod portion 425. The middle portion 4211 of the socket portion 421 is sleeved inside the small sleeve hole 414, and is in the middle portion. The 4211 front end is provided with a set of tongues 4212 fixed at the end of the large sleeve hole 416, and a long rod 4213 is extended from the central front end of the tenon 4212. The front end of the long rod 4213 is provided with a concave hole 4214, and the front end of the long rod 4213 faces the water inlet passage. An outlet 4215 is defined at 419, and an outer screw portion 4216 for screwing a nut 4210 is disposed at a rear end of the middle portion 4211, and a stepped slot 4217 is disposed inside the middle portion 4211, and the layer slot 4217 is disposed at the middle portion 4211. The front end is provided with a long hole 4218 which communicates with the recessed hole 4214, and is provided with an internal thread at the middle of the stepped slot 4217. The upper end of the middle section 4211 is provided with an inlet opening 4219 which communicates with the water inlet hole 413 and the level slot 4217. And at least one washer 421a is disposed on the outer periphery of the middle portion 4211 to form a tight connection with the small sleeve hole 414. The adjusting rod portion 422 is provided with a screwing portion 4221 and a thread of the stepped hole 4217 of the socket portion 42. The front end of the adjusting rod portion 422 is extended with a taper rod 4222, and the taper rod 4222 The apex portion is inserted into the long hole 4218, and the screwing portion 4221 of the adjusting rod portion 422 is screwed forward and backward, and the cone rod 4222 is simultaneously advanced or retracted to enter the passage between the opening 4219 and the long hole 4218 to adjust and fix. The fixing portion 423 is disposed at the inner rear end of the large sleeve hole 416. The inner axial rear end of the fixing portion 423 is provided with a first hole groove 4231 for inserting the long rod 4213. The fixing portion 423 has an inner axial direction. The front end is provided with a second hole 4232 corresponding to the recessed hole 4214. The fixing portion 423 is longitudinally disposed and opposite to the water inlet passage 419 and the through hole 4233 of the outlet 4215, and the outer peripheral edge of the fixing portion 423 is provided with at least one pad body 4234. The inner peripheral end of the protruding shaft portion 424 is provided with a through hole 4241. The inner peripheral end of the protruding shaft portion 424 is provided with a through hole 4242. The outer peripheral edge of the protruding shaft portion 424 is provided with a corresponding screw 415. An inclined arc groove 4243, the front end of the protruding shaft portion 424 is pivotally connected to a fifth gear 4244; the rod portion 425 The outer end of the rod portion 425 is provided with a slot 425. The externally threaded rod 4252 of the rod portion 425 is screwed back and forth, and the round rod 4251 can be inserted into the recessed hole 4214 to advance, so that the protruding shaft portion 424 rotates to synchronously move the rod portion 425 to advance, so that the rod portion 425 adjusts the outlet 4215. The second servo motor 43 is disposed above the base 417 and electrically connected to the decoder 26. The front end of the second servo motor 43 extends a shaft 431 and pivots. Six gears 432, and a third chain 433 to form a meshing transmission between the sixth gear 432 and the fifth gear 4244 to notify the water valve body by the second servo motor 43 electrically connected to the decoder 26 The outlet 4215 of the water inlet assembly 42 disposed inside the seat 4 is adjusted to reduce the amount of water discharged from the water outlet 4191.
The oil-water mixing device 1 of the present invention is combined by the above respective elements.
In the implementation of the present invention, as shown in FIG. 9, the oil body (as indicated by the arrow in FIG. 9) enters through the oil inlet 316, passes through the oil inlet passage 319 and the oil outlet 317, and communicates with the inlet passage 212. The valve passage 231 and the oblique passage 232 and the outlet passage 213, the fixed water flow rate from the inlet hole 413 through the inlet port 4219 (as indicated by the arrow in Fig. 10), then flows to the long hole 4218 and reaches the inlet water through the outlet 4215. Channel 419; when the burner (not shown) is in the combustion process, according to the implementation of the case, when the fuel economy is 15%, in order to maintain combustion in the fire (85% oil body, 15% water flow), or to maintain small The combustion of fire (85% oil body, 15% water flow) is stable, and by the valve device 25 inside the oil-water mixing device 1, when the internal pressure of the oil-water mixing device 1 is different, as shown in Fig. 6, The valve device 25 disposed inside the main valve body seat 2 can be moved inward or outward through the pendulum rod 234 of the swinging rod 251 through the swing rod 2512 of the swinging rod 232, and the curved guiding rod 2513 can be Moving downward or upward in the arcuate groove 236, the valve passage 231 can be closed or opened. The larger valve passage 231 is opened, and the second gear 262 of the decoder 26 is rotated by the first gear 256, and the first servo motor disposed above the oil valve body seat 3 is electrically connected to the rotary decoder 26 for interpretation. The fourth gear 332 of the third gear 332 drives the third gear 329 to rotate, and is driven to the oil inlet shaft 321 disposed inside the first block group 31, the oil feed shaft rod 321 is rotated, and the adjusting screw 314 is inserted therein. The rotation of the inclined groove 325 of the rim of the oil shaft 321 can adjust the inlet 324 of the outer side of the oil inlet shaft 321 to be adjusted smaller or larger, and the electrical connection with the decoder 26 is also provided at the same time. The sixth gear 432 of the second servo motor 43 above the water valve body 4 drives the fifth gear 4244 to rotate, and is driven to the convex shaft portion 424 disposed inside the second block group 41, and the screw 314 is at the convex portion. The rotation of the inclined arc groove 4243 of the outer edge of the shaft portion 424 simultaneously drives the rod portion 425 to advance, so that the rod portion 425 adjusts the outlet 4215 to become smaller or larger to control the water flow of the outlet 4215, and the water flow rate of the smaller scale is controlled by The water outlet 4191 flows out, and the oil body with the oil body outflow passage 418 can be adjusted to save fuel by 15%. The oil body of the example, and the water flow and the oil body are fully stirred and mixed during the combustion process to achieve a more even and uniform oil-water mixture, and provide a more stable oil-water mixed fuel for the subsequent burner to achieve a more stable combustion. To make the combustion more complete and smooth.

Domestic registration information [please note according to the registration authority, date, number order]

Foreign deposit information [please note according to the country, organization, date, number order]

1‧‧‧ Oil-water mixing device

2‧‧‧Main valve body seat

21‧‧‧ body

24‧‧‧ cover

244‧‧‧ screws

255‧‧‧ shaft

256‧‧‧First gear

26‧‧‧Decoder

261‧‧‧Shaft axis

262‧‧‧second gear

263‧‧‧First chain

3‧‧‧ oil valve seat

31‧‧‧ first group

316‧‧‧ inlet

3161‧‧‧ hole

318‧‧‧ positioning block

3182‧‧‧ Positioning parts

32‧‧‧Adjust oil inlet components

328‧‧‧Shaft axis

329‧‧‧third gear

33‧‧‧First servo motor

331‧‧‧Shaft axis

332‧‧‧fourth gear

333‧‧‧Second chain

4‧‧‧Water valve seat

41‧‧‧Second group

412‧‧‧second convex

415‧‧‧ screw

417‧‧‧ base

42‧‧‧Adjust water inlet components

424‧‧‧Shaft shaft

4244‧‧‧ fifth gear

43‧‧‧Second servo motor

431‧‧‧ shaft

432‧‧‧ sixth gear

433‧‧‧third chain

Claims (11)

An oil-water mixing device includes: a main valve body seat having an inlet passage at one end and an outlet passage corresponding to the inlet passage at the other end, wherein a valve device is disposed inside the main valve body seat, the valve The device is provided with a valve passage communicating with the inlet passage and the outlet passage, and a swinging member for closing or opening the valve passage is disposed inside the valve device, and the swinging member is provided with a shaft pivoting a decoder is disposed at a front end of the main valve body seat; an oil valve body seat, an oil inlet port for supplying oil to and from the inside of the oil valve body seat, and a corresponding oil inlet port An oil outlet connected to the inlet passage, and an oil inlet passage disposed between the oil inlet and the oil outlet, the oil valve body seat comprises a first block group and an adjusted oil inlet And a first servo motor, wherein the adjusting oil inlet assembly is provided with an oil inlet shaft inside the oil inlet passage, and an outer side of the oil inlet shaft is provided with an oil inlet opening corresponding to the oil inlet port, and the inlet The rim of the oil shaft has a slanted groove and a rim on the outer side. a port, the adjusting screw is rotated in the inclined groove and the size of the inlet is adjustable; the first servo motor is disposed at a front end of the oil valve body seat and electrically connected with the decoder; a valve body seat, the water valve body seat is provided with a water inlet hole, and the water valve body seat is internally provided with an oil body outflow passage communicating with the outlet passage, and a vertical insertion position with the oil body outflow passage is provided a water passage, a water outlet corresponding to the oil body outflow passage is disposed above the water inlet passage, the water valve body seat includes a second block group, an adjustment water inlet assembly and a second servo motor, wherein the water passage The adjusting water inlet assembly includes a socket portion disposed at an inner rear end of the water valve body seat, the socket portion having an adjusting rod portion for adjusting a flow rate of water entering through the water inlet hole, wherein the socket portion is provided with one end An outlet communicating with the inlet passage, a fixing portion assembled with one end of the socket portion, and a convex shaft portion disposed at an inner front end of the water valve body seat, and utilizing a rod portion disposed inside the convex shaft portion Adjusting the size of the outlet; the second servo motor is set The front end of the water valve body seat is meshed with and electrically connected to the decoder; when the valve device moves the swing lever due to the different internal pressure of the oil-water mixing device, and the valve passage is closed or opened, Simultaneously rotating the decoder to interpret and electrically connecting the first servo motor and the second servo motor respectively, the size of the inlet inside the oil valve body seat and the size of the outlet inside the water valve body seat are adjusted. It can control the flow rate required for oil and water in combustion. The oil-water mixing device according to claim 1, wherein the main valve body seat comprises a body, a fixed body, a set of solids and a cover body, wherein a space is arranged at a front end of the seat body; At the rear end of the space of the seat body; the set of solids is disposed in the space of the seat body and adjacent to one side of the fixed body, and the valve passage for feeding oil in and out and having a smaller aperture than the inlet passage is disposed in the space a solid interior, the valve passage is provided with an oblique passage toward the right side, and the right end of the oblique passage is connected with the outlet passage, and the sleeve solid is adjacent to the valve passage, and a hole is provided, and the right end of the slot is provided The upper part is provided with an arc-shaped groove; the cover body is disposed at the front end of the seat body, and a cover groove is disposed inside the cover body, and a side of the cover body is provided with an embedded solid toward the through hole. The oil-water mixing device according to claim 2, wherein the valve device is disposed inside the sleeve of the solid body and the cover body, and the swinging rod inside the valve device is disposed inside the hole of the sleeve of the sleeve, The swinging rod is provided with a protruding portion, the protruding portion has a shaft hole, a protruding portion is extended downwardly, and a curved guiding rod is extended on one side of the swinging rod; a first block disposed on the inner side of the groove and adjacent to the sleeve body, the first block body is provided with a reduced convex body toward the outer side of the first block body, and the first block body is internally provided with an inner screw hole a first and a second groove respectively disposed on two sides of the second block that is sleeved with the first block, and a threaded hole is disposed in the center of the second block and respectively associated with the first and the second The two grooves are connected to each other, and the first groove is disposed for the convex body, and an annular ring is disposed inside the threaded hole, and a first pad body and an inner side facing the receiving groove are disposed outside the second groove a second pad body is provided, and a gasket is arranged on the outer edge of the second block to be tightly coupled with the cover body; and two bearings, wherein the bearing sleeve is Connected to the inside of the first groove and abuts the convex body, the other bearing sleeve is inside the second groove, and the other outer side of the bearing is abutted by a first pad; the shaft penetrates The bearing, the inner screw hole and the shaft hole are further provided with a convex key at the end of the shaft corresponding to the key groove above the shaft hole; a first gear is pivotally connected outside the shaft; the decoding The decoder is disposed above the base body, and the decoder extends a convex shaft toward the outer side, and a second gear is pivotally connected to the outer side of the protruding shaft. The oil-water mixing device of claim 3, wherein the first block of the oil valve body is internally provided with a chamber, and the front and the rear ends of the chamber are respectively provided with a chamber communicating with the chamber a front and a rear groove, the adjusting screw is disposed at a rear end of the front groove of the first block group, and the first and the first ends of the oil inlet shaft disposed in the chamber are respectively extended a pair of protruding rods respectively sleeved on a bearing group outside the first and second protruding rods, a third gear pivotally connected to the outside of the oil feeding shaft; the first servo motor is disposed in the first block group A fourth gear that meshes with the third gear is pivotally coupled to the upper and outer portions. The oil-water mixing device of claim 4, wherein the front end of the first protruding rod extends a convex shaft, and the diameters of the first and second protruding rods are respectively smaller than the diameter of the oil inlet shaft. The oil-water mixing device of claim 5, wherein the bearing set is sleeved with an annular pad and is tightly coupled with the first block; wherein the oil body outflow channel is opposite to the main valve body seat. A leak-proof gasket is provided on the outer periphery of the adjacent side to form a tight joint with the main valve body seat. The oil-water mixing device of claim 6, wherein the bottom end of the second block of the water valve body seat is provided with a first convex portion and a second convex portion for the front end. a water inlet hole is disposed above the first convex portion, and a screw hole for screwing a screw is disposed above the second convex portion, and the oil body outflow passage is disposed inside a base body above the second block group and The outlet passage is connected to each other; the sleeve portion of the adjusting water inlet assembly is disposed inside the second block group, a long rod is extended at the front end of the sleeve portion, and a concave hole is formed inside the front end of the long rod, and the sleeve portion is internally provided The utility model is provided with a slotted hole, a long hole communicating with the recessed hole, and an inlet port communicating with the water inlet hole and the layered slot hole at the upper end; the adjusting rod portion is provided with a screwing portion and the socket The internal thread of the slot of the layer is screwed, and the front end of the adjusting rod portion extends a taper rod disposed in the long hole; the fixing portion is disposed inside the second block group and is in contact with the socket portion. The inner axial rear end of the fixing portion is provided with a first hole groove for inserting the long rod, and the inner axial front end of the fixing portion a second hole corresponding to the recessed hole, the fixing portion is longitudinally located and opposite to the water inlet passage and the outlet; the protruding shaft portion is internally provided with a through hole, and the outer peripheral edge of the protruding shaft portion is provided with a relative An inclined arc groove of the screw, the front end of the protruding shaft portion is pivotally connected to a fifth gear; the rod end is provided with a round rod screwed to the protruding shaft portion; the second servo motor is disposed above the base body The second servo motor is externally pivotally coupled to a sixth gear that meshes with the fifth gear. The oil-water mixing device of claim 7, wherein the first convex portion is provided with a small set of holes communicating with the water inlet hole, and the second convex portion is internally provided with a hole diameter smaller than the small hole a large set of holes that are connected to each other; the middle portion of the sleeve portion is sleeved inside the small set of holes, and a set of tenons fixed at the end of the large set of holes is extended at the front end of the middle portion a long rod is extended, and an outer screw portion for screwing a nut is disposed at a rear end of the middle portion, and an internal thread is disposed at an intermediate portion of the strut hole, and at least one outer peripheral edge of the middle portion is provided. The gasket is formed to be tightly formed with the small sleeve hole; wherein the fixing portion is at the inner rear end of the large sleeve hole, and the outer circumference of the fixing portion is provided with at least one pad body to form a tight connection with the large sleeve hole; the convex shaft portion The inner rear end is provided with an inner screw hole; the round rod at the end of the rod portion extends toward the front end with an externally threaded rod screwed to the inner screw hole, and a front end surface of the rod portion is provided with a tool for inserting and screwing A slot. The oil-water mixing device of claim 8, wherein the second gear pivotally connected to the outer side of the decoder forms a meshing transmission between the first gear and the first gear; The front end of the first servo motor is extended with a shaft for pivoting the fourth gear, and a second chain is used to form a mesh transmission between the fourth gear and the third gear; wherein the second servo A shaft for pivoting the sixth gear is extended on the front end of the motor, and a third chain is used to form a meshing transmission between the sixth gear and the fifth gear. The oil-water mixing device of claim 9, wherein the seat body is respectively provided with a plurality of fixing holes at the upper and lower ends of the inlet passage and the outlet passage, the seat body facing the front end of the through hole, The lower end is respectively provided with a plurality of locking holes; wherein, the two sides of the oil inlet of the first block are provided with a plurality of holes for a plurality of oil pipes, and the upper and lower ends of the right side of the first block are respectively extended a positioning block is provided, the positioning block is provided with a plurality of perforations relative to the fixing holes of the base body, and a plurality of positioning members respectively penetrate the through holes and are fixedly connected to the fixing holes; wherein the second block The upper and lower ends of the oil body outflow passage are respectively provided with a plurality of holes, and the ends of the holes are respectively provided with an inner screw hole, and a plurality of fixing screws respectively penetrate the holes, the inner screw holes and the fixing holes The plurality of screw holes are respectively disposed on the outer edge of the cover body relative to the outer edge of the other side, and the plurality of screws are respectively inserted into the screw holes and fixed to the locking holes. The oil-water mixing device of claim 10, wherein the outer side of the fixed body is respectively provided with a plurality of buried holes; wherein the upper and lower ends of the set of solids are respectively provided with a plurality of holes opposite to the buried holes Wherein, the upper and lower ends of the embedded solid are respectively provided with a plurality of screw holes opposite to the holes, and the plurality of fixing members respectively penetrate the buried holes, the holes and are fixed with the screw holes.