![]() INTEGRATED VALVE WITH DOUBLE USE OIL-GAS
专利摘要:
The present invention discloses an integrated dual-use oil-gas valve. The valve comprises a valve (1) and a button valve (2) for controlling an ignition coil (3) and a carburetor solenoid valve (4); the button valve (2) has a knob (21) which can be rotated to control the ignition coil (3) to ground or de-energize the carburetor; the valve comprises a valve body (11), a valve interior (12) and a valve plug (13). The integrated dual oil-gas valve can switch the oil path and the gas path randomly. 公开号:FR3044736A1 申请号:FR1662062 申请日:2016-12-07 公开日:2017-06-09 发明作者:Bo Zhang;Quan Yang;Wenbin Zhou;Jinhua Du 申请人:Chongqing Rato Tech Co Ltd; IPC主号:
专利说明:
INTEGRATED VALVE AT DOUBLE US AGF. HUT-GAS The present invention relates to the technical field of fuel supply systems for dual-use oil-gas energy generators, particularly to an integrated dual-use oil-gas valve. At the moment, commercially available dual-use oil-gas generator fuel systems are switched in two modes. First, the oil and gas paths are controlled by two individual valves; the valves have no direct connection; to switch to the other fuel status in order to run an energy generator, the energy generator must first be shut down, while operators must have some professional experience to ensure that the energy generator is running stably after switching; the other is that the oil path and the gas path are always controlled by two independent valves which are connected by a mechanical structure. When one valve opens, the other is tied to close. This structure requires many actions to perform the switching, so that it is also difficult to perform a random switching between the oil and the gas during the operation of the energy generator. In the two structures above, the valve and the shut-off valve of the energy generator are not in direct relationship, so that if the operator does not close the gas path after the shutdown of the generator. energy, safety accidents tend to occur. The technical problem to be solved in the present invention is to provide an integrated dual-use oil-gas valve capable of switching randomly between oil and gas paths. To solve the above problem, the present invention provides an integrated dual-use oil-gas valve. The integrated dual-use oil-gas valve includes a valve and a button valve to control an ignition coil and a carburetor solenoid valve; the button valve has a button that can be rotated to control the ignition coil to ground or de-energize the carburetor; the valve comprises a valve body, a valve interior and a valve plug; the valve plug is attached to the valve body to form a valve cavity, the valve interior is disposed in the valve body; the valve interior passes through the valve plug to be attached to the button valve knob so that when the button valve is rotated, the valve interior is rotated; the valve body is provided with an oil intake line gasket, an oil delivery line gasket, a gas inlet line gasket and a line gasket. gas discharge which communicate with the valve cavity; the valve interior is provided with an oil duct that communicates with the oil intake line seal and the oil delivery line seal, and a gas line that communicates with the line seal gas inlet and the gas discharge pipe joint. In addition, at least one positioner is disposed between the valve interior and the valve plug; the positioner comprises an elastic member and a positioning member; an end face, contacting the valve plug, of the valve interior is provided with a receiving cavity equivalent to the positioner; an end face, engaging the valve interior, of the valve plug is provided with at least three locating holes, the elastic member and the locating member are both disposed in the receiving cavity ; and the positioning member matches the positioning hole. In addition, the valve interior and the valve body are in play adjustment. In addition, the valve interior includes a valve inner body and a valve inner sleeve; the inner valve sleeve is sleeved on the valve inner body; the valve inner sleeve is provided with two through-holes corresponding to a gas conduit of the valve inner body; and both ends of the valve inner sleeve are provided with protuberances. In addition, the valve body is also provided with a fuel oil settling chamber; the fuel oil settling chamber is disposed between one of the fuel oil seals and the valve cavity; the valve body is provided with an oil conduit so that the fuel oil settling chamber communicates with the valve cavity, while the fuel oil settling chamber communicates with the fuel oil seal; and the fuel oil settling chamber is provided inside a filter screen for filtering the fuel oil. In addition, the fuel oil settling chamber consists of a settling tank, a sealing ring and a settling cup which are arranged on the valve body; the decantation cup and the settling tank are in detachable connection; and the sealing ring is disposed between the settling tank and the settling cup for sealing. In addition, the valve also comprises a rubber pad provided with two through holes; the rubber pad is disposed at the bottom inside the valve cavity, and located between the valve interior and the valve body. In addition, the button valve comprises a button, a first microvalve, a second microvalve, a cam, a panel and a support; the cam is penetrated by the button; the button is fixed inside the valve; the first microvalve and the second microvalve are both disposed on the support; the cam is located between the first microvalve and the second microvalve; the support is fixed on the panel; and the first microvalve is normally passing. In addition, the support comprises a main support body, two fixed tabs and at least two support tabs attached to the panel; the two fixed tabs are arranged on two sides of the main support body; and the first microvalve and the second microvalve are respectively fixed at the two fixed tabs. In addition, the panel is provided with cogwheels. The integrated dual oil-gas valve of the present invention controls the on-off of the oil path and the gas path by the rotation of the valve interior, and the valve interior is connected directly to the valve knob. the button valve, so that the valve interior rotates in conjunction with the button. When the oil path is on, the ignition coil is not grounded and can ignite, and the carburetor solenoid valve is de-energized while the carburettor main measurement hole opens and in this way, the fuel oil can be transmitted to the carburetor cup of the engine. When the gas path is energized, the carburetor throttle opens, and the ignition coil can fire without ground; the carburetor solenoid valve is electrified, and the main carburettor measurement hole is closed, thus avoiding a mixture of oil and gas and ensuring stable operation. The button and the valve interior directly realize a transmission without link mechanism, and during the switching of the oil path to the gas path or the switching of the gas path to the oil path, the ignition coil is set off for a while then electrified again, and the motor does not shut down and can continue to operate due to the inertia effect, so no experience is required to perform the switching, and the switching is stable and random. At the same time, when the button valve is turned to the off position, the oil pipe and the gas pipe are both closed, and the ignition coil is grounded and can not ignite, thus guaranteeing safety. Fig. 1 is a structural view of a preferred embodiment of an integrated dual-use oil-gas valve of the present invention. Figure 2 is an exploded view of the integrated dual-use oil-gas valve. Figure 3 is a sectional view of the valve. Figure 4 is a structural view of a valve interior. Figure 5 is a structural view of another preferred embodiment of a positioning member. Figure 6 is an electrical diagram of the integrated dual-use oil-gas valve. Fig. 7 is a structural view of another preferred embodiment of the integrated dual-use oil-gas valve of the present invention. Figure 8 is a sectional view of the valve body of Figure 7. The present invention is described in more detail with reference to the accompanying drawings. Embodiment 1 As shown in FIGS. 1 and 2, in a preferred embodiment, the integrated dual-use oil-gas valve of the present invention comprises a valve 1, and a button valve 2 for controlling an ignition coil 3 and a carburetor solenoid valve 4; the button valve 2 has a knob 21 which is rotated to control the ignition coil 3 to ground and de-energize the carburetor; and the knob 21 is fixed inside the valve 12 of the valve 1. Referring now to FIG. 3 and FIG. 4, the valve 1 comprises a valve body 11, a valve interior 12, a positioner 14, and a valve plug 13. The valve plug 13 is secured to the valve body 11 for forming a valve cavity; the valve interior 12 is disposed in the valve body 11; the valve interior 12 and the valve body 11 are flush fit to ensure the sealing effect. The valve interior 12 passes through the valve plug 13 and is attached to the button 21 of the button valve 2 so that the button valve 2 causes the valve interior 12 to rotate during its rotation. The positioner 14 is disposed between the valve interior 12 and the valve plug 13 to rapidly position the rotational position of the valve interior 12. The valve body 11 is provided with an oil intake line seal 111, an oil delivery line seal 112, a gas inlet line seal 113 and a gas discharge line joints 114 which communicate with the valve cavity; axial lines of gas inlet gasket 113 and gas discharge line gasket 114 are superimposed, namely on the same straight line without elbow, thereby ensuring a sufficient gas supply during gas status and small pressure drops. The oil intake line seal 111 and the oil delivery line seal 112 are disposed at the bottom of the valve body 11, while the gas inlet line seal 113 and the line seal gas discharge 114 are disposed in the middle of the valve body 11, which are conveniently distinguished. In other embodiments, the oil intake line seal 111, the oil delivery line seal 112, the gas inlet line seal 113 and the gas delivery line seal 114 may all be disposed in the middle of the valve body 11. The valve interior 12 is provided with an oil conduit 1211 for connecting the oil intake line seal 111 to the delivery line joint of oil 112, and a gas conduit 1212 for connecting the gas inlet line gasket 113 to the gas delivery line gasket 114. The valve interior 12 includes a valve interior body 121 and a valve inner sleeve 122; the valve inner sleeve 122 is sleeved on the valve inner body 121; and the valve inner sleeve 122 is provided with two through-holes corresponding to the air duct 1212 of the valve inner body 121. The valve inner sleeve 122 is made of rubber, in close fit with the body valve 11 and the valve interior 12 by an elastic potential, thus effectively preventing convection of the oil and gas and preventing leakage of the gas. Both ends of the valve inner sleeve 122 are provided with protuberances, reducing the contact area between the valve interior 12 and the valve body 11, thereby reducing the friction between the valve interior 12 and the valve body. valve 11 during rotation. The valve inner body 121 is cone-shaped, facilitating assembly. An end face, in contact with the valve plug 13, of the valve interior 12 is provided with a receiving cavity. More specifically, the end face, coming into contact with the valve plug 13, of the valve inner body 121 is provided with a receiving cavity. The end face, coming into contact with the valve interior 12, of the valve plug 13 is provided with three positioning holes 131. Referring now to FIG. 2, the positioner 14 comprises an elastic member 141 and a positioning member 142. The elastic member 141 and the positioning member 142 are both disposed in the receiving cavity of the valve body. 121. The positioning member 142 matches the positioning hole 131, which means that the two ends of the elastic member 141 are respectively pressed against the bottom of the receiving cavity in which the positioning member 142 is disposed. and the valve inner body 121. In this embodiment, the elastic member 141 is a rubber column, and the positioning member 142 is a spherical steel ball. The positioner 14 can quickly position the valve interior 12 so that the flow of the oil or gas reaches its maximum, or quickly cut the oil path and the gas path. In other embodiments, the positioner 142 may be a steel stud with an arcuate end, or a cylinder (as shown in FIG. 5), and the axial line of the cylinder is parallel to the face of the cylinder. end of the valve inner body 121. A rubber bush 15 with two through-holes is disposed between the valve body 11 and the valve interior 12. The rubber cushion 15 is disposed at the bottom in the valve cavity and is fixed to the bottom of the valve cavity, while the two through holes correspond respectively to the oil intake line seal 111 and the oil delivery line seal 112. In other embodiments, the rubber bushing 15 may also be attached to the valve interior 12, and the two through holes match the oil intake line seal 111 and the oil delivery line seal 112 on the valve body 11. Referring now to FIGS. 2 and 6, the button valve 2 comprises a button 21, a first microvalve 22, a second microvalve 23, a cam 24, a panel 26 and a support 25. The cam 24 is penetrated by the button 21, and the button 21 is fixed inside the valve 12 by a screw. The first microvalve 22 and the second microvalve 23 are both disposed on the support 25. The cam 24 is located between the first microvalve 22 and the second microvalve 23, and the support 25 is fixed on the panel 26. The first microvalve 22 is normally passing while the second microvalve 23 is normally blocked. The first microvalve 22 is used to control the ignition coil 3 to ground or not, while the second microvalve 23 is used to control the carburetor solenoid valve 4 to turn on or off. cut. The support 25 comprises a main support body 251, two fixed lugs 252 and three support lugs 253 fixed to the panel 26; the two fixed tabs 252 are arranged on two sides of the main support body 251, and the first microvalve 22 and the second microvalve 23 are fixed respectively at the two fixed tabs 252. The panel 26 is provided with gear markers 261, namely, a gear wheel for the oil, a gear wheel for the gas and a gear wheel stop. When the button 21 is located at the stop gear, the cam 24 depresses the first microvalve 22 so that the ignition coil 3 is grounded, which means that ignition is impossible. In such circumstances, the second microvalve 23 is in the off state, while the oil path and the gas path are both closed, thus ensuring safety. When the knob 21 is turned to the left on the gearwheel for the gas, the button 21 causes the cam 24 to turn to the left to push the second microvalve 23, and the first microvalve 22 goes out; when the valve interior 12 is rotated for left-hand rotation, the gas conduit 1212 into the valve interior 12 communicates with the gas inlet line seal 113 and the gas delivery line seal 114 and in such circumstances, the steel ball is located in the positioning hole 131 corresponding to the valve plug 13. The gas inlet line seal 113 communicates with the gas delivery line seal 114 so that the gas enters the throttle of the carburetor. The first microvalve 22 turns off so that its ignition coil 3 is electrified to ignite, and the second microvalve 23 turns off so that its gas control circuit is electrified, which means that the Fuel solenoid valve 4 in the carburetor is electrified, and the shaft of the solenoid valve shaft 4 moves upward to lock the carburettor's main measurement hole and cuts the oil path into the carburetor. In such circumstances, a single path of gas only enters, thus preventing the fuel oil and gas from mixing and burning, and ensuring the stable operation of the entire machine. When the knob 21 is turned to the right on the gearwheel for the gas, the button 21 drives the cam 24 in rotation to the right so that the first microvalve 22 and the second microvalve 23 are not depressed, while the valve interior 12 is rotated to the right so that the oil conduit 1211 in the valve interior 12 connects the oil intake line seal 111 to the oil delivery line joint 112, and in such circumstances, the steel ball is located in the positioning hole 131 corresponding to the valve plug 13. The first microvalve 22 is set to be normally passing, and then the ignition coil 3 can make the ignition when electrified. The second microvalve 23 is set to be normally locked, then the carburetor solenoid valve 4 is de-energized and the main carburettor measurement hole opens; and the oil intake line seal 111 communicates with the oil delivery line seal 112 so that the fuel oil enters the carburetor cup. When the gearwheel is switched from the gearwheel for the fuel oil to the gearwheel for the gas, or when the gearwheel is switched from the gearwheel for the gas to the gearwheel for the fuel oil, the time of switching is very short, and the ignition coil 3 is de-energized for a moment and then electrified again, so that the motor does not stop and can continue to operate due to the inertia effect. No experience is required to perform the switching, and switching is stable and random. Embodiment 2 As shown in Figures 7 and 8, this embodiment is different from Embodiment 1 in that the valve body 11 is also provided with a fuel oil settling chamber, and the other parts are the same. The fuel oil settling chamber is disposed between the fuel oil line seal (the oil intake line seal 111 and the oil delivery line seal 112 are generally referred to as the line seal. fuel oil) and the valve cavity. The valve body 11 is provided with an oil pipe so that the fuel oil settling chamber communicates with the valve cavity, and the fuel oil settling chamber communicates with the oil line seal. combustible. Specifically, the fuel oil settling chamber is disposed between the oil discharge line seal 112 and the valve cavity, and the fuel oil settling chamber communicates with the oil delivery line seal. 112. The fuel oil settling chamber is provided inside a filtration screen 16 for filtering the fuel oil, and the filtration screen 16 is fixed on the oil pipe on the valve body 11 The fuel oil settling chamber consists of a settling tank and a settling cup 17 on the valve body 11. The settling cup 17 is connected to the settling tank by means of threads for that the settling cup 17 can be removed from the valve body 11, and the impurities left on the settling cup 17 by the filter screen 16 can be carried away. In other embodiments, the settling cup 17 may be connected to the settling tank by screws, and a sealing ring 18 is also disposed between the settling cup 17 and the settling tank. In other embodiments, the filter screen 16 can be removed, and thus natural settling occurs. Embodiment 3 This embodiment is different from Embodiment 2 with respect to the amount of the positioner 14. In this embodiment, two positioners 14 are provided. The end face, coming into contact with the valve plug 13, of the valve interior 12 is provided with two receiving cavities, and the end face, coming into contact with the valve interior 12, of the Valve plug 13 is provided with six locating holes 131. In other embodiments, six positioners 14 may be provided. What is stated above are only some embodiments of the present invention and should not be construed as limitations of the present invention. Any equivalent structure made on the basis of the description and accompanying drawings of the present invention, or direct or indirect application to other related fields, will fall within the scope of protection of the present invention.
权利要求:
Claims (10) [1" id="c-fr-0001] 1. Integrated dual-use oil-gas valve, characterized in that said integrated dual-use oil-gas valve comprises a valve (1) and a button valve (2) for controlling an ignition coil (3) and a carburetor solenoid valve (4); the button valve (2) has a knob (21) which can be rotated to control the ignition coil (3) to ground or de-energize the carburetor; the valve (1) comprises a valve body (11), a valve interior (12) and a valve plug (13); the valve plug (13) is attached to the valve body (11) to form a valve cavity; the valve interior (12) is disposed in the valve body (11); the valve interior (12) passes through the valve plug (13) to be fastened with the button (21) of the button valve (2) so that when the button valve (2) is rotated, the valve interior (12) is rotated; the valve body (11) is provided with an oil intake line seal (111), an oil delivery line seal (112), a a gas (113) and a gas discharge line joint (114) communicating with the valve cavity; the valve interior (12) is provided with an oil duct (1211) which communicates with the oil intake line seal (111) and the oil delivery line seal (112), and a gas conduit (1212) communicating with the gas inlet line gasket (113) and the gas delivery line gasket (114). [2" id="c-fr-0002] 2. Integrated dual-use oil-gas valve according to claim 1, characterized in that at least one positioner (14) is disposed between the valve interior (12) and the valve plug (13); the positioner (14) comprises an elastic member (141) and a positioning member (142); an end face, coming into contact with the valve plug (13), of the valve interior (12) is provided with a receiving cavity equivalent to the positioner (14); an end face, engaging the valve interior (12), of the valve plug (13) is provided with at least three locating holes (131), the elastic member (141) and the positioning member (142) are both disposed in the receiving cavity; and the positioning member (142) matches the positioning hole (131). [3" id="c-fr-0003] 3. Integrated dual-use oil-gas valve according to claim 1, characterized in that the valve interior (12) and the valve body (11) are in play adjustment. [4" id="c-fr-0004] An integrated dual oil-gas valve according to claim 1, characterized in that the valve interior (12) comprises a valve inner body (121) and a valve inner sleeve (122); the valve inner sleeve (122) is sleeved on the valve inner body (121); the valve inner sleeve (122) is provided with two through holes corresponding to a gas conduit of the valve inner body (121); and both ends of the valve inner sleeve (122) are provided with protuberances. [5" id="c-fr-0005] 5. Integrated dual-use oil-gas valve according to claim 1, characterized in that the valve body is also provided with a fuel oil settling chamber; the fuel oil settling chamber is disposed between one of the fuel oil seals and the valve cavity; the valve body (11) is provided with an oil conduit (1211) so that the fuel oil settling chamber communicates with the valve cavity, while the fuel oil settling chamber communicates with the valve cavity; fuel oil seal; and the fuel oil settling chamber is provided inside a filter screen (16) for filtering the fuel oil. [6" id="c-fr-0006] 6. Integrated dual-use oil-gas valve according to claim 5, characterized in that the fuel oil settling chamber consists of a settling tank, a sealing ring (18) and a settling cup (17) which are arranged on the valve body; the settling cup (17) and the settling tank are in detachable connection; and the sealing ring (18) is disposed between the settling tank and the settling cup (17) for sealing. [7" id="c-fr-0007] 7. Integrated dual-use oil-gas valve according to claim 1, characterized in that the valve also comprises a rubber pad (15) provided with two through holes; the rubber pad (15) is disposed at the bottom inside the valve cavity, and located between the valve interior (12) and the valve body (11). [8" id="c-fr-0008] 8. Integrated dual-use oil-gas valve according to claim 1, characterized in that the button valve (2) comprises a button (21), a first microvalve (22), a second microvalve (23), a cam ( 24), a panel (26) and a support (25); the cam is penetrated by the button (21); the button is fixed inside the valve (12); the first microvalve (22) and the second microvalve (23) are both arranged on the support (25); the cam (24) is located between the first microvalve (22) and the second microvalve (23); the support (25) is fixed on the panel (26); and the first microvalve (22) is normally passing. [9" id="c-fr-0009] 9. Integrated dual-use oil-gas valve according to claim 8, characterized in that the support comprises a main support body (251), two fixed lugs (252) and at least two support lugs (253) fixed to the panel (26); the two fixed tabs (252) are arranged on two sides of the main support body (251); and the first microvalve (22) and the second microvalve (23) are respectively fixed at the two fixed tabs (252). [10" id="c-fr-0010] 10. Integrated dual-use oil-gas valve according to claim 1, characterized in that the panel (26) is provided with gear wheels (261).
类似技术:
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同族专利:
公开号 | 公开日 CN105351104B|2018-08-21| IT201600095861A1|2018-03-23| US9803773B2|2017-10-31| FR3044736B1|2020-06-19| US20170159841A1|2017-06-08| CA2928326A1|2017-06-08| CA2928326C|2020-03-31| CN105351104A|2016-02-24| JP2017106429A|2017-06-15| JP6267265B2|2018-01-24|
引用文献:
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法律状态:
2017-10-27| PLFP| Fee payment|Year of fee payment: 2 | 2018-10-30| PLFP| Fee payment|Year of fee payment: 3 | 2019-09-20| PLSC| Publication of the preliminary search report|Effective date: 20190920 | 2019-10-28| PLFP| Fee payment|Year of fee payment: 4 | 2020-10-27| PLFP| Fee payment|Year of fee payment: 5 | 2021-11-26| PLFP| Fee payment|Year of fee payment: 6 |
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申请号 | 申请日 | 专利标题 CN201510896763.3A|CN105351104B|2015-12-08|2015-12-08|Oil-gas two-way integrated switch| CN2015108967633|2015-12-08| 相关专利
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