Air compression device

[0045] The present application will be described in connection with the accompanying drawings, in order to make the present application, in connection with the accompanying drawings.

[0046] This embodiment provides a plurality of temporal turbines to improve the technical problems of waste thermal energy and thermal conversion efficiency in existing internal combustion engines.

[0047] figure 1 A structural diagram of a plurutable turbine of the present embodiment, figure 2 for figure 1 Explosion schematic. Combine figure 1 as well as figure 2 The annotation turbine provided by the present embodiment mainly includes a pressurizing apparatus A and a power unit B, and the pressure gas device A is used to provide the high pressure gas required to be combustion to the acting device B, and the power device B will be delivered to the high pressure in the acting device B. Gas and ignition work after the combustion medium.

[0048] First, the present embodiment will introduce the pressure gasement.

[0049] image 3 A structural diagram of the pressure gasement device of the present embodiment. Combine Figure 1 - Figure 3 The pressure gas device A of the present embodiment includes a first stator 1 and a first rotor 2, and an intake port 3 is provided on the circumferential surface of the first stator 1, and the air port 4 is provided, and the first rotor 2 includes a first main shaft 201. The first fixing blade 202, the first swing blade 203, and the first roller 204, the first main shaft 201 can be rotatably disposed within the first stator 1, and the first drum 204 is eccentrically disposed within the first stator 1, and The first main shaft 201 active is disposed within the first roller 204, and the first fixing blade 202 is fixed to the first main shaft 201, and the plurality of first swing blades 203 can be rotatably disposed on the first main shaft 201, the first fixing blade 202 and the main levels of the plurality of first swing blades 203 are parallel to the first main shaft 201, and the first fixing blade 202 and the plurality of first swing blades 203 are movable through the circumferential surface of the first roller 204, and On the inner side wall of the first stator 1, the first fixing blade 202 and the plurality of first swing blades 203 can divide the area of ​​the first drum 204 and the first stator 1 into a plurality of volumes with the first roller 204. The first space of rotation periodically continuously.

[0050] Since the pressure gasement device of the present embodiment includes a first stator 1 and a first rotor 2, an intake port 3 is provided on the circumferential surface of the first stator 1, and therefore, it can pass through the intake port 3 to the first The gas is injected inside the stator 1, and after the gas compression is treated in the first stator 1, the high pressure gas is formed, and the formed high pressure gas is introduced to the working device by giving the air port 4.

[0051] Since the first main shaft 201 of the first rotor 2 can be rotatably disposed within the first stator 1, the first roller 204 is eccentrically disposed in the first fixture, and the first main shaft 201 activity is disposed in the first roller. In, in this way, the first roller 204 and the first stator 1 can be enclosed in a first space of a month.

[0052] Since the first fixing blade 202 is fixed to the first main shaft 201, the plurality of first swing blades 203 can be rotatably disposed on the first main shaft 201, and the first fixing blade 202 and the main plane of the plurality of first swing blades 203 are all Parallel to the first main shaft 201 first fixing blade 202 and the plurality of first swing blades 203 are movable through the circumferential surface of the first drum 204, and on the side wall of the first stator 1, so that the control When the main shaft 201 is rotated, the first main shaft 201 drives the first fixing blade 201 to rotate, the first fixing blade 201 drives the first drum 204 to rotate, and the plurality of first swing blades 203 are rotated, that is, the first fixed blade 202 and a plurality of With the first spin of the first spindle, the first spin of the moon can divide the first space of the above-described monthly tooth shape to a first space that is continuously changed with the rotation of the first drum 204.

[0053] At the time of implementation, the gas from the intake port 3 of the first stator 1 into and a certain first space, with the rotation of the first main shaft 201, the volume of the first space of the inhalation gas is small, used to The gas compressed to the first space is compressed, forming a high pressure gas, and when the pressure spatial is in communication with the air outlet 4 of the first stator 1, the high pressure gas is discharged from the air outlet.

[0054] As the first main shaft 201 continues to rotate, the gas continuously enters into the first stator 1 from the intake port 3 of the first stator, and the high pressure gas formed after the first stator 1 is compressed, and continuously from The air outlet of the first set 1 is discharged.

[0055] Combine figure 2 In the present embodiment, the first stator 1 includes a first cover plate 101, a second cover plate 102, a third cover plate 103, a fourth cover plate 104, and a first set of shell wall shell 105, wherein the first cover plate 101 and the third cover plate 103 are relatively arranged, between the circumferential surfaces of the first cover plate 101 and the third cover plate 103 are connected by the first set of shell 105, and the second cover plate 102 is disposed inside the first cover plate 101. The first positioning groove 106 (binding) is provided on the first cover plate 102 provided with a peripheral end of the axial direction of the first drum 204 (binding Figure 4 ), After the axial direction of the first drum 204 acts through the second cover plate 102, it can be rotatably disposed in the first positioning groove 106, in the same, the fourth cover plate 104 is disposed inside the third cover plate 103, The second positioning groove 107 that matches the circumferential surface of the axial direction of the second drum 204 is disposed on the third cover plate 104, and the axial direction of the first drum 204 acts through the fourth cover plate 104. Turn it in the second positioning groove 107.

[0056] In the present embodiment, the first cover plate 101 and the second cover plate 102 can be integrally formed, and the third cover plate 103 and the fourth cover plate 104 may also be integrally formed, and the first cover plate 101 and the third cover plate 103 With the first stator wall shell 105, it can be detachably sealed to facilitate assembly of the first rotor 2 in the first stator 1.

[0057] In the present embodiment, both ends of the first main shaft 201 may actively pass through two coverings of the same end, respectively, to achieve a rotatable setting in the first main shaft 201 within the first stator 1.

[0058] Figure 5 A explosive structure of the first drum of the present embodiment, Image 6 A top view of the first drum in the present embodiment, Figure 7 Schematic diagram of the structure of the first fixed blade, combined Figure 5 - Figure 7 In this embodiment, the first mounting ring 205 is provided on one side of the first fixed blade 202, and the first mounting ring 205 is fixed to the first main shaft 201, i.e., the first fixed blade 202 can be rotated synchronously with the first main shaft 201. .

[0059] Combine Image 6 as well as Figure 7 For the present embodiment, the first mounting ring 205 can be fixed to the first main shaft 201 by the first bond 206, of course, the first mounting ring 205 can also be welded or integrally formed on the first main shaft 201, This embodiment does not limit this.

[0060] Combine Image 6 In this embodiment, each side of each of the first swing blades 203 is provided with a second mounting ring 207, and the second mounting ring 207 active sleeve is in the first main shaft 201, i.e., the second mounting ring 207 rotatable. The first main shaft 201.

[0061] Further, in the present embodiment, at least one second mounting ring 207 is provided between the axial direction between the first mounting ring 205 and the axial direction of the first stator 1, so that through the first mounting ring 205 and The limit of the end of the first stator 1 is realized, i.e., the assembly of the second mounting ring 207 in the first main shaft 201.

[0062] Combine Figure 5 In the present embodiment, the circumferential surface of the first drum 204 is provided with a plurality of first through holes 208, each of which is provided with a first hinge in each of the first through holes 208, and the first hinge is provided with a first fixation. The voids passing through the blade 202 or the first swing blade 203, the first fixing blade 202 and the first swing blade 203 can swing in the corresponding first through hole 208. The first fixing blade 202 is active to pass through a first hinge, and the first swing blade 203 passes the remaining first hinge, which is provided such that the internal and external sides of the first drum 204 can be sealed to improve the conversion efficiency of gas treatment. .

[0063] Figure 8 A main body explosion of the first hinge of the present embodiment. Combine Figure 5 as well as Figure 8 In the present embodiment, each of the first hinges includes two first hinge shafts 210, two first columnar body 211, and a first roller 212, wherein the two first hinge shafts 210 can be rotatably connected. In both ends of the first roller 204, the arcuate surfaces of the two first columnar body 211 can rotatably disposed on two opposite sidewalls of the corresponding first through holes 208, two first columnar bodies 211 The axial direction can be rotatably coupled to the two first hinge shafts 210, and the planes of the two first columnar body 211 are opposed to form a gap to pass through the first fixing blade 202 or the first swing blade 203, and The opposite surface of the two first columnar body 211 is provided with a first mounting groove, a first roller 212, and a first columnar body 211 along its axial direction, and the first rolling needle 212 rotates in the corresponding first In the first mounting groove of a columnar body 211, the axial direction of the first roller 212 can be rotatably coupled in two second hinge shafts 210, respectively. When the first fixed blade 202 or the first swing blade 203 is swung between the two first columnar body 211, the first roller 212 is rolled with the corresponding blade to improve the service life of the first hinge and the corresponding blade. .

[0064] Further, combined Figure 5 as well as Figure 8In this embodiment, each of the two opposing sidewalls of each of the first through holes 208 are provided with a first slot, and the arcuate surface of each of the first columnar body 211 and the side wall of the corresponding first through hole 208. There is also a first hinge sealing piece 209, and the first columnar body 211 can be rotatably disposed in the inside of the first hinge sealing sheet 209, and the first patch plate 213 is provided outside the first hinge sealing sheet 209, the first plug In the first slot of the same side, the first slot plate 213 and the bottom of the first slot are provided with a first elastic member 214. The first elastic member 214 can press the first coupon plate 213, and the first columnar body 211 is pressed on the corresponding blade to achieve a sealing effect.

[0065] In order to improve the sealing effect, in the present embodiment, the first coupling plate 213 can be integrated with the first hinge sealing sheet 209, and the first hinge sealing sheet 209 is integrally curved to achieve the first columnar body 211 in the first hinge seal. The rotation of the inner side of the sheet 209.

[0066] For the present embodiment, the first elastic member 214 of the present embodiment may be an arc shape, and the first elastic member 214 is at both ends of the first plug 213, and the first elastic member 214 The middle is topped on the intermediate position of the bottom of the first slot, thus allowing the first elastic member 214 to have sufficient support to improve the sealing effect.

[0067] The first elastic member 214 of the present embodiment may be other shapes, such as strips, etc., and the first columnar body 211 can be semi-circular, etc., in some embodiments, or other angles, etc., This embodiment does not limit this.

[0068] Combine Figure 5 In the present embodiment, both ends of the first drum 204 are provided with a first stop having a stepped shape, the first drum seal 215, and the outer side setting of the first roller seal 215. There is a first tension seal ring 216. Both of the axial direction of the first drum 204 are provided with a first drum end cover 217, and the first drum seal 215 and the first tension seal ring 216 are provided in the first roller end cover 217 in the same side, the first drum end The cover 217 is rotatably disposed in the first positioning groove 106 or the second positioning groove 107, which can improve the sealing property of the first drum 204 and the first roller end cover 217. Preferably, in the present embodiment, the first roller seal 215 has two steps, and a first tension seal ring 216 is separately suits the two steps of the first drum seal 215 to further improve the reliability of the seal.

[0069] Further, combined figure 2 In this embodiment, the axial end portion of the second barrel 210 passes through the end cap of the same end, and a first bearing 218 is provided at the axial end portion of the second cylinder 210, and the first bearing 218 can be and the first. The positioning groove 106 or the second positioning groove 107 is in contact, and when the first drum 210 is rotated, the first bearing 218 is rolled with the first positioning groove 106 or the second positioning groove 107, which reduces friction. Improve the smoothness of the first drum 204 rotation.

[0070] In this embodiment, the first hinge shaft 210 can pass through the first roller end cover 217 of the same end, and the first bearing 218 is fitted to the first hinge shaft 210.

[0071] Combine image 3 In the present embodiment, at least one first heat sink hole 5 may be provided at the end portion of the first stator 1, the first heat sink hole 5, and the first drum 204, when the first drum 204 rotates, The heat dissipation hole 5 introduces air to heat the heat generated when the first drum 204 is rotated.

[0072] In the present embodiment, the outer side of the first fixing blade 202 and the first swing blade 204 is provided with a seal that is in contact with the inner wall of the first stator, which can slide in the corresponding blade, in the tension of the spring. The top of the first pillar in the action can be automatically compensated under the tension of the spring after the seal is worn, and the whole machine life can be improved.

[0073] In the present embodiment, the intake port 3 and the air port 4 may be disposed on the circumferential surface of the first stator 1, and of course, it may be disposed on the end face of the first stator 1, which is not limited.

[0074] Preferably, in the present embodiment, the first drum 204 and the first set of shell 105 may be tangent, and the intake port 3 is disposed in a position close to the first roller 204, and The air inlet 4 and the intake port 3 are disposed on the first set of housing 105.

[0075] Further, combined Figure 4 The intake port 3 of the present embodiment can be provided with one or more regulator slide 6, at least one pressure regulating slider 6 operatively on the intake port 3 and can be along the circumferential direction of the first stator 1. Move, so that the pressure gas start phase can be adjusted to change the amount of pressure to accommodate gas treatment in different air pressure.

[0076] In this embodiment, the movement of the slider 6 can be performed by, for example, the controllable structure, such as a motor, to achieve an automated adjustment scheme.

[0077] Again, the present embodiment describes the work device.

[0078] Figure 9 A schematic structural diagram of the acting device of the present embodiment. Combine figure 1 , figure 2 as well as Figure 9 The work device of the present embodiment includes a second stator 7 and a second rotor 8, and a ignition device 9 is provided on the second stator 7, the air supply port 10, the fuel inlet 11, and the exhaust port 12, and the second rotor 8 include second. The spindle 801, the second fixing blade 802, the second swing blade 803, and the second roller 804, the second main shaft 801 can be rotatably disposed within the second stator 7, and the second drum 804 is eccentric in the second stator 7, Further, the second main shaft 801 is actively disposed in the second roller 804, and the second fixing blade 802 is fixed to the second main shaft 801, and the plurality of second swing blades 803 can be rotatably disposed on the second main shaft 801, second The fixing blade 802 and the plurality of second swing blades 803 are movable through the circumferential surface of the second drum 804, and the second fixing blade 802 and a plurality of second swing blades 803 are formed on the inner side wall of the second stator 7. The regions of the second roller 804 and the second stator 7 can be divided into a plurality of second spaces that are continuously changed continuously with the rotation of the second drum 804.

[0079] In the present embodiment, since the actuator B includes a second stator 7 and the second rotor 8, the supply port 10, the fuel inlet 11, the exhaust port 8, and the ignition device 9 are provided by the second stator. 7 The air supply port 10 delivers high pressure gases to the second stator 7, and the combustion medium, high pressure gas, and combustion medium input to the second stator 7 are transported to the second stator 7 after inputting the second stator 7, and form a working article through the fuel inlet 11. This works can be expanded by ignition device 9.

[0080] In this embodiment, since the second main shaft 801 is rotatably disposed within the second stator 7, the second drum 804 is eccentrically disposed in the second stator 7, and the second drum 804 is active in the second main shaft 801. On the outside, thereby, between the second roller 804 and the second stator 7 can also be a monthly teeth.

[0081] Since the second fixing blade 802 is fixed to the second main shaft 801, the plurality of second swing blades 803 can be rotatably disposed on the second main shaft 801, the second fixing blade 802 and the main levels of the plurality of second swing blades 803. Parallel to the second main shaft 801, the second fixing blade 802 and the plurality of second swing blades 803 are movable through the circumferential surface of the second drum 804, and is joined on the inner side wall of the second stator 7. Thus, the second fixing blade 802 and the plurality of second swing blades 803 can divide the second space of the above-described moon to teeth into a second space that can be continuously changed with the rotational cycle of the second drum 804, injecting to a certain first After the second space of the high pressure gas and the fuel are ignited by the ignition device 9, expanded heat gas, and push the second fixing blade 802 and the second swing blade 803 by expanded hot air to rotate the second main shaft 801 and the second drum 804 to make the second space. Generation is made from a small to large, when the second space changes to the maximum, the second space and the exhaust port on the second stator communicate, so that the exhaust gas after the work is discharged from the exhaust port on the second stator.

[0082] As the media and the high pressure gases continue to be continuously injected into a certain second space, the rotation of the second rotor 8 can be continuously driven to achieve the purpose of continuous output power.

[0083] Combine figure 2 In this embodiment, the second stator 7 includes a fifth cover plate 701, a sixth cover plate 702, a seventh cover plate 703, an eighth cover plate 704, and a second stator shell 705, wherein the fifth cover plate 701 and The seventh cover plate 703 is connected to the respective surface of the fifth cover plate 701 and the seventh cover plate 703, and the sixth cover plate 702 is disposed inside the fifth cover plate 701, fifth cover The plate 701 is provided with a third positioning groove 706 (binding to the peripheral surface of the axial direction of the second drum 804). Figure 10 The axial direction of the second drum 804 acts through the sixth cover plate 702, and is rotatably disposed in the third positioning groove 706, in the same, the eighth cover plate 704 is disposed in the inside of the seventh cover plate 703, The fourth positioning groove 707 provided with the circumferential surface of the second drum 804 is provided on the seventh cover plate 703, and the axial direction of the second drum 804 passes through the eighth cover plate 704, and Turn it within the fourth positioning groove 707.

[0084] In this embodiment, the fifth cover plate 701 and the sixth cover plate 702 can be integrally formed, and the seventh cover plate 703 and the eighth cover plate 704 can also be integrally formed, and the fifth cover plate 701 and the eighth cover plate 704 With the second stator shell 705, it can be detachably sealed to facilitate assembly of the second rotor 8 in the second stator 7.

[0085] In this embodiment, at least one second heat sink hole 13 may be provided at the end portion of the first stator 1, the second heat sink hole 13 and the second drum 804 in communication, when the second drum 804 rotates, The secondary heat hole 13 introduces air to heat the heat generated when the second drum 804 is rotated.

[0086] Combine figure 2 as well as Figure 9 In the present embodiment, the two ends of the second main shaft 801 may actively pass through the two coverings of the same end to achieve the rotatable setting of the second main shaft 801 in the second stator 7.

[0087] Figure 11 A explosive structure of the second drum of the present embodiment, Figure 12 A top schematic view of the second drum in the present embodiment, Figure 13 Schematic structural diagram of the second fixing blade. Combine Figure 11 - Figure 13 In this embodiment, the third mounting ring 805 is provided on one side of the second fixing blade 802, and the third mounting ring 805 is fixed to the second main shaft 801, i.e., the second fixing blade 805 can rotate synchronously with the second main shaft 801. .

[0088] Combine Figure 12 For the present embodiment, the third mounting ring 805 can be secured to the second main shaft 801 by the second key 806, of course, the third mounting ring 805 can also be welded or integrally formed on the second main shaft 801, This embodiment does not limit this.

[0089] Combine Figure 12 In this embodiment, each side of each of the second swing blades 803 is provided with a fourth mounting ring 807, and the fourth mounting ring 807 active sleeve is on the second main shaft 801, i.e., the fourth mounting ring 807 is rotatable. The second main shaft 801 is on.

[0090] Further, in the present embodiment, at least one fourth mounting ring 807 is provided between the axial direction between the third mounting ring 805 and the axial direction of the second stator 7, so that the third mounting ring 807 and the first The limit of the end of the second mold 7 is realized, that is, the assembly of the fourth mounting ring 807 on the second main shaft 801.

[0091] Combine Figure 11 In the present embodiment, a plurality of second through holes 808 are provided on the circumferential surface of the second roller 804, each of which is equipped with a second hinge, and the second fixation is provided in the second hinge. The voids passing through the blade 802 or the second swing blade 803, the second fixing blade 802 and the second swing blade 803 swing in the corresponding second through hole 808. The second fixing blade 802 is active to pass through a second hinge, and the second swing blade 803 corresponds to the active seal through the remaining second hinge, which is provided such that the second drum 804 remains sealed and improves the performance efficiency.

[0092] Specifically, in the present embodiment, each of the second through holes 808 is provided with a second hinge, and a second fixed blade 802 or a second fixing blade is provided in the second hinge 803. 802 and the second swing blade 803 swings within the corresponding second through hole 808.

[0093] Figure 14 A main body explosion of the second hinge of the present embodiment. Combine Figure 11 as well as Figure 14 In this embodiment, each of the second hinges includes two second hinge shafts 810, two second columnar body 811, and two roller 812, wherein the two second hinge shafts 810 can be rotatably connected. In both ends of the second drum 804, the two second columnar bodies 811 can rotatably disposed on two opposing sidewalls of the corresponding second through holes 808, and the axial direction of the two second columnar 811. The both ends can be rotatably coupled in two second hinge shafts 810, and the planes of the two second columnar 811 are opposed to form a gap through which the second fixed blade 802 or the second swing blade 803 is passed. Two second The opposite surface of the columnar body 811 is provided with a second mounting groove, the second roller 812, and the second columnar 811 in which the axial direction thereof is provided, and the second roller 821 rotates at the corresponding second columnar 811. In the second mounting slot, the axial direction of the second roller 821 can be rotatably coupled in two second hinge shafts 810, respectively. When the second fixed blade 802 or the second swing blade 803 is swung between the two second columnar 811, the second roller 804 is rolled with the corresponding blade to improve the service life of the second hinge and the corresponding blade. .

[0094] Further, in the present embodiment, the two opposing sidewalls of each second through hole 808 are provided with a second slot, an arcuate surface of each of the second columnar 811 and a corresponding second through hole 808. A second hinge sealing sheet 809 is provided between the side walls, and the second tangle plate 813 is provided in the outer side of the second hinge sealing sheet 809, and the second coupling plate 813 is embedded in the second slot of the same side. A second elastic member 814 is provided between the second plug plate 813 and the bottom of the second slot. The second elastic member 814 can press the second coupling plate 613, and the first columnar body 811 is pressed on the corresponding blade to achieve a sealing effect.

[0095] In order to improve the sealing effect, in the present embodiment, the second coupling plate 813 can be integrally formed with the second hinge sealing sheet 809, and the second hinge sealing sheet 809 is integrated into an arc shape to achieve the first columnar body 211 in the first The rotation of the hinge sealing sheet 209 is rotated.

[0096] For the present embodiment, the second elastic member 814 of the present embodiment may be an arc shape, and the second elastic member 814 is at both ends of the second coupling plate 213, and the second elastic member 814 The middle is topped in an intermediate position at the bottom of the second slot, thus allowing the second elastic member 814 to have sufficient support to improve the sealing effect.

[0097] The second elastic member 814 of the present embodiment may be other shapes, such as strips, etc., and the second columnar body 811 can be semi-circular, etc., in some embodiments, or other angles, etc. This embodiment does not limit this.

[0098] In this embodiment, both the axial direction of the second drum 804 are provided with a second drum end cover 817, the second roller seal 815, and the second tension sealing ring 816 are provided in the second drum end cover 817 on the same side. The second drum end cap 817 is rotatably disposed in the third positioning groove 706 or the fourth positioning groove 707, which can improve the sealing of the second drum 804 and the second drum end cover 817.

[0099] Preferably, in the present embodiment, the second roller seal 815 has two steps, and a second tension seal ring 816 is separately suits the two steps of the second roller seal 815 to further improve the reliability of the seal.

[0100] Further, combined figure 2 In this embodiment, the axial end portion of the fourth barrel 810 passes through the end cap of the same end, and a second bearing 818 is provided at the axial end portion of the fourth barrel 810, and the second bearing 818 can and the third. The positioning groove 706 or the fourth positioning groove 707 is in contact, when the second roller 804 is rotated, the second bearing 818 will roll friction when the second bearing groove 707 is rubbed, and can reduce friction. Improve the smoothness of the second drum 804 rotation.

[0101] In this embodiment, the second hinge shaft 810 can pass through the second roller end cover 817 of the same end, and the second bearing 818 is fitted to the second hinge shaft 810.

[0102] Further, in the present embodiment, the outer side of the second fixing blade 802 and the second swing blade 803 and both ends are provided with the inner wall of the second stator 7, which can slide in the corresponding blade, The tension of the spring is tightened, and the sealing member can be automatically compensated after the tension of the spring, and the whole machine life is improved.

[0103] The ignition device 9 of the present embodiment, the air supply port 10 and the fuel inlet 11 may be disposed on the first side surface of the second stator distance from the second drum distance, while the exhaust port 12 can be disposed in the second On the second side of the circumferential surface of the stator, the second side and the first side are arranged relative to the work efficiency.

[0104] Further, in the present embodiment, the second drum 804 and the second stator shell 705 may be tangent, and the air supply port 10 is disposed in the second stator shell 705 is close to its position, exhaust gas. The port 12 and the air supply port 10 are disposed on the second stator shell 705.

[0105] Further, the air supply port 10 on the second stator 7 of the present embodiment can be connected to the second stator 7 through the first stator 7 by the first stator 7 through the gave air port 4 on the first stator 1, and the second stator 7 is transported. Of course, the air supply port 10 on the second stator can also transmit high-pressure gases on which other devices, and the fuel inlet of the present embodiment also can be disposed on the communication pipe 14, which is not limited thereto.

[0106] Further, in this embodiment, the number of elastic seals on the first drum and the second drum is consistent, and the spacing is also consistent, which can divide the first space and the second space into a size different chamber, and can be guaranteed. The action of the pressure gasement and the acting device is synchronized.

[0107] In the present embodiment, the pressure gas device A can be fixedly provided with the working function module B, that is, the first stator 1 of the compressor device A can be fixedly coupled to the second stator 7 of the work module B, and the first main shaft 201 of the pressurizing device A and The second main shaft 802 of the power unit B is fixedly connected, and the first main shaft 201 of the pressure gas device A can be rotated by the motor by the motor B. After the motor B is activated, the first main shaft 201 can be in the second main shaft 801. Synchronous rotation under the drive, at this time, the motor and the first main shaft 201 can be disconnected.

[0108] On the pressure gasement, the volume of the first space between adjacent blades is inhaled by a small to a large change process, and then compresses the air by the large to a small process. On the acting device, the volume of the second space between adjacent blades is made by small to a large process, and the volume of the second space between adjacent blades is discharged from the process of large to a small process.

[0109] When the gas is pressed to the maximum, the compressed air is pressed into the duct block by connecting the through-tube, and mixed with the in-injected fuel into a high pressure work, the function of the function is full of high pressure works and rotates to the most Light of the working volume when the ignition is lighter. The pressure of the fluid burning expansion pushs the blade and the drum to move in the direction of the blade that is larger, and the volume is also larger. The expanded pressure generated by the expanded hot gas acts vertically to the blade perpendicular to the blade, pushing the force blade around the shaft, and the force blade drives the second roller rotation by the lever principle, thereby driving other blades rotation, wherein the fixed blade drives the main shaft. The whole function is flowing through the work machine. After completing the work, the volume of the position between the cavity adjacent blades begins to be small, and the exhaust gas is discharged during a small volume of the volume.

[0110] During the rotor of the actuator, the spindle rotation of the rotor of the spindle is rotated by the rotor of the pressure gas device, and the fixing blade of the pressure gas device drives the first roller rotation, the first drum drives the swing blade rotation, and the adjacent blade is changed from the vapor volume of the blade. The air is inhaled in the large process, compresses the air in the process of larger variable, and the flow of the compression process flows in the circumferential direction.

[0111] The existing reciprocating piston engine consists of a cylinder, a piston, a link, a crank, an intake, an exhaust valve. Since the stroke of the inhalation pressure is carried out in the container of the same fixed volume, the expanded thermal gas cannot be exhausted when the exhaust gas discharges part of the thermal energy, so the thermal efficiency is not high. Complex link crankshaft mechanism and the intake valve control mechanism also make the whole machine structure have a high cost, and the crankshaft rotation of the crankshaft is done once, resulting in low power weight ratio, and low weight of large output power. The process of transforming from linear motion into a rotational movement also brings vibration and noise.

[0112] The existing gas turbine internal combustion engine uses a shaft coaxial rotor structure, a pressure blade and a doctor blade share a straight axis, the blade and the main shaft have a certain angle of angle, and the dynamic energy of the axial flow turbine compressor and the centrifugal turbine carrier is used. Compressed air, compressed air and ignite the expansion of the expansion after mixing, the function is used axial flow turbine, and the high-pressure hot air is rotating along the axial flow and the circumferential force to drive the turbine blade rotation. The exhaust gas is discharged directly in the axial direction. Simple structure, power weight, high speed, low noise. High pressure efficiency is high in high-speed operation, and the thermal efficiency is also higher in thermal efficiency of reciprocating piston engines.

[0113] Because the axial flow compression and centrifugal compression kinetic energy compression can only be pressed to the ideal air pressure at high speed, so that high combustion efficiency must be high-compressed high-power work area, low speed and idle speed. Unable to work, causing axial gas turbine internal combustion engine unable to apply to low power and speed of low power and speed in civil transportation tools. High-temperature high-voltage high-speed working environment for the manufacturing process of the blade achieves extremely high manufacturing cost.

[0114] In the present application, the donor cavity and the stress cavity are divided into a chamber different from a different space, and the heat engine efficiency is greatly improved. From ignition to the expansion exhaust process, the volume expansion is sufficiently large, and there is no line motion conversion circle. The loss of exercise does not have additional friction loss from the crankshaft eccentric vibration, and the combustion hot air is large, the pump is small, which can greatly improve the efficiency of heat.

[0115] The present application uses a fixed blade and a swing blade to divide a different chamber different from a different chamber, and the pressure of the variable barrier is used to compress air, and it is not subject to the speed limit. Under the low speed and idle conditions, it can also achieve The ideal compression ratio meets the needs of efficient combustion.

[0116] The rotor of the acting device and the compression device of the present application is in the process of rotation, in the process of performing the function or compression, the angle between the blades is also small in the case where the volume changes in the outer wall of the drum outer wall and the inner wall of the stator. Increased compression ratio, in turn, improve the efficiency and compression efficiency.

[0117] Further, the structure described in this application does not have a gear and a crankshaft to participate in work, and the shaft turbine internal combustion engine is simple, so the speed is high, and the output torque is high.

[0118]Further, the application is low, no connecting rod on the impact noise of the crankshaft, no vibration noise of eccentric rotation, no noise, simple structure, simple structure, the weight of the same size, the volume weight is relatively high Light, manufacturing a reciprocating internal combustion engine, a rotor blade, and a cylinder cylinder, a rotor blade, and a cylinder cylinder, manufacturing cost is much lower than the axial flow internal combustion engine.

[0119] The pressure gasement of the present application is only compressed by the first fixed blade, the first swing blade, and the first roller, the entire process does not have other movements, correspondingly reduces energy loss due to conversion. The acting power unit is only the output of the power through the second fixing blade, the second swing blade, and the circumferential motion of the second spindle, and the entire process also does not have the corresponding conversion of other movements, and the thermal energy of the internal combustion engine can be improved. Waste problems, improve heat conversion efficiency, with good practical value.

[0120] Although the preferred embodiments of the present application have been described, one of ordinary skill in the art can be made to other modifications and modifications. Therefore, the appended claims are intended to be construed as including preferred embodiments and all changes and modifications falling in the scope of this application.

[0121] Obviously, those skilled in the art can make various modifications and variations of the present application without departing from the spirit and scope of the present application. Thus, if these modifications and variations of the present application are within the scope of the claims and their equivalents thereof, the present application is intended to include these modifications and variations.