WO2011015125A1 - Prime motor with special-shaped cavity - Google Patents
Prime motor with special-shaped cavity Download PDFInfo
- Publication number
- WO2011015125A1 WO2011015125A1 PCT/CN2010/075641 CN2010075641W WO2011015125A1 WO 2011015125 A1 WO2011015125 A1 WO 2011015125A1 CN 2010075641 W CN2010075641 W CN 2010075641W WO 2011015125 A1 WO2011015125 A1 WO 2011015125A1
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- WO
- WIPO (PCT)
- Prior art keywords
- arc surface
- rotor body
- cavity
- groove
- slide plate
- Prior art date
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Classifications
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- F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
- F01—MACHINES OR ENGINES IN GENERAL; ENGINE PLANTS IN GENERAL; STEAM ENGINES
- F01C—ROTARY-PISTON OR OSCILLATING-PISTON MACHINES OR ENGINES
- F01C1/00—Rotary-piston machines or engines
- F01C1/30—Rotary-piston machines or engines having the characteristics covered by two or more groups F01C1/02, F01C1/08, F01C1/22, F01C1/24 or having the characteristics covered by one of these groups together with some other type of movement between co-operating members
- F01C1/34—Rotary-piston machines or engines having the characteristics covered by two or more groups F01C1/02, F01C1/08, F01C1/22, F01C1/24 or having the characteristics covered by one of these groups together with some other type of movement between co-operating members having the movement defined in group F01C1/08 or F01C1/22 and relative reciprocation between the co-operating members
- F01C1/344—Rotary-piston machines or engines having the characteristics covered by two or more groups F01C1/02, F01C1/08, F01C1/22, F01C1/24 or having the characteristics covered by one of these groups together with some other type of movement between co-operating members having the movement defined in group F01C1/08 or F01C1/22 and relative reciprocation between the co-operating members with vanes reciprocating with respect to the inner member
- F01C1/3441—Rotary-piston machines or engines having the characteristics covered by two or more groups F01C1/02, F01C1/08, F01C1/22, F01C1/24 or having the characteristics covered by one of these groups together with some other type of movement between co-operating members having the movement defined in group F01C1/08 or F01C1/22 and relative reciprocation between the co-operating members with vanes reciprocating with respect to the inner member the inner and outer member being in contact along one line or continuous surface substantially parallel to the axis of rotation
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- F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
- F01—MACHINES OR ENGINES IN GENERAL; ENGINE PLANTS IN GENERAL; STEAM ENGINES
- F01C—ROTARY-PISTON OR OSCILLATING-PISTON MACHINES OR ENGINES
- F01C21/00—Component parts, details or accessories not provided for in groups F01C1/00 - F01C20/00
- F01C21/10—Outer members for co-operation with rotary pistons; Casings
- F01C21/104—Stators; Members defining the outer boundaries of the working chamber
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- F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
- F04—POSITIVE - DISPLACEMENT MACHINES FOR LIQUIDS; PUMPS FOR LIQUIDS OR ELASTIC FLUIDS
- F04C—ROTARY-PISTON, OR OSCILLATING-PISTON, POSITIVE-DISPLACEMENT MACHINES FOR LIQUIDS; ROTARY-PISTON, OR OSCILLATING-PISTON, POSITIVE-DISPLACEMENT PUMPS
- F04C2250/00—Geometry
Definitions
- the invention relates to a heterogeneous cavity prime mover, and belongs to the technical field of fluid machinery and energy.
- the prime mover is a mechanical device that converts natural or artificial energy such as water, wind, heat, and electric energy into mechanical motive force. It can be divided into different types according to the type of energy used, such as turbines, wind turbines, gas turbines, steam engines, Electric motor, hydraulic motor, etc. Among them, the hydraulic turbine and the hydraulic motor are hydraulic prime movers. The former can convert the kinetic energy of the liquid (water) into the rotational driving force of the output shaft, and the latter converts the pressure energy of the liquid into the rotational driving force of the output shaft.
- prime mover's technical level not only directly affects energy utilization and other resource consumption, but also is closely related to ensuring safe production and reducing output costs. Therefore, the development of modern economy and industrial technology puts higher demands on the prime mover, including energy efficiency, power range, rotational speed, operational stability, operational reliability, flow adjustability, structural complexity, strength, weight, Volume, installation conditions, maintainability, manufacturing processability and many other aspects.
- Each of the main types of prime movers currently has some basic structural forms that have been formed through long-term research and use.
- the counter-turbine turbines are further divided into axial flow type, cross flow type, mixed flow type and diagonal flow type.
- Another example is the hydraulic motor with several basic structural types: gear type, vane type, radial piston type and axial plunger type.
- a special-shaped cavity prime mover comprising a housing with a profiled inner cavity, an inlet and an outlet, and an upper cover and a lower cover mounted on both end faces of the housing a sealing cavity formed by the casing and the upper cover plate and the lower cover plate, wherein the rotor is mounted in the sealing cavity, the rotor comprises a rotor body, a first combined sliding plate, a second combined sliding plate, the rotor body is a cylindrical body, and the rotor body is radially opened a first guiding groove and a second guiding groove having a cross, the first combined sliding plate and the second combined sliding plate are respectively slidably mounted in the first guiding groove and the second guiding groove, the first combined sliding plate and the second combined sliding plate Both ends of the two sides simultaneously conform to the inner cavity of the profiled surface, and the heights of the first combined slide plate, the second combined slide plate and the rotor body are consistent with the height of the shaped
- Both ends of the combined slide plate are always attached to the inner cavity of the profiled surface, and the height of the combined slide plate and the rotor body are the same as the height of the inner cavity of the profiled surface, so that the sides of the combined slide plate are relatively sealed to avoid internal leakage.
- the profiled inner cavity of the casing is a plane symmetrical closed cylinder surface
- the closed cylinder surface is composed of a quarter arc surface AB, a second transition arc surface BC, a quarter arc surface CD and the first
- the transitional arc surface DA is connected in sequence
- the quarter arc surface AB is coaxial with the quarter arc surface CD.
- the radius R of the quarter arc surface AB is greater than the radius r of the quarter arc surface CD
- the first transition arc surface DA and the second transition arc surface BC are symmetrical with each other, and the joints of the four arc surfaces are smoothly transitioned.
- the smooth transition of each arc surface can be realized by tangent to the joint.
- the sealed cavity can be formed by the rotor body of the profiled surface cavity and the combined slide plate, and is measured as a standard volume. Since the inner cavity of the profiled surface is a symmetrical structure, when the inlet pressure is less than the outlet pressure, the rotor can be reversed, and the prime mover can select the forward and reverse outputs.
- the common axis of the one-quarter arc surface AB and the quarter arc surface CD (9 and perpendicular to the common axis (any straight line is the first transition arc surface DA and the second transition arc surface BC
- the length ee of the section line is greater than or equal to the sum of the radius of the quarter arc surface AB and the quarter arc plane CD.
- ee is greater than a quarter arc surface AB and a quarter arc surface CD when the sum of the radius, the combination of an elastic member slide, when the slide plate is rotated to the combination of a transition arc, the elastic member to both sides of the combination of the slide plate slide within the open ends so that the combination surfaces shaped to match the cavity wall.
- the elastic element when equal to e e
- the elastic element may be selected to ensure that the two ends of the combined slide plate are matched with the inner wall of the profiled surface, or the elastic element may be omitted.
- the total length of the combined slide plate is equal to the ee , and the combined slide plate slides only by the pushing force of the inner wall of the profiled surface to the slide plate when rotating, and the two ends of the slide plate are always matched with the inner wall of the profiled face.
- the inlet and the outlet on the casing are respectively opened in the region of the first transitional arc surface DA and the second transitional arc surface BC;
- the inlet guide groove is arranged at the inlet, and the inlet guide channel is opened along the inner wall of the profiled surface, Both ends of the inlet guide groove start from the end point A and terminate at the end point D ;
- the outlet is provided with an outlet guide groove, and the outlet guide groove is opened along the inner wall of the profiled surface.
- both ends of the outlet guide groove start at the end point B and terminate at the end point.
- the rotor body is coaxial with the quarter arc surface CD, and the radius ⁇ of the rotor body is equal to the radius r of the quarter arc surface CD.
- the rotor body rotates, it is attached to the quarter arc surface CD for easy metering.
- the first guiding groove and the second guiding groove are both central symmetrical structures, and the two wings of each guiding groove are cut into the rotor body at a certain depth along the radial direction of the rotor body, and the cutting section penetrates along the axial direction of the rotor body;
- the middle portion of the guiding groove is a rectangular hole penetrating in the radial direction of the rotor body, and the middle portion of the first guiding groove is cut into the rotor body by the upper end surface and the lower end surface of the rotor body respectively along the axial direction of the rotor body, and the cutting portion is along the diameter of the rotor body.
- the intersection of the two guiding grooves is separated from each other. The two guide grooves respectively guide the first combined slide and the second combined slide without interference.
- the first combined slide plate comprises two groove-shaped slide plates with one side of the center groove, and the two ends of the grooved side form two groove legs, the two groove-shaped slide plates have the same structure, the groove legs are opposite to each other, and the groove legs are The middle portion of the first guiding groove is matched;
- the second combined sliding plate comprises two T-shaped sliding plates of the same structure, the straight sides of the T-shaped sliding plates are opposite to each other, and the straight sides of the T-shaped sliding plate are matched with the rectangular holes in the middle of the second guiding groove.
- the length of the slotted slide plate satisfies the relationship between the length of the T-shaped slide plate, the radius R of the quarter arc surface AB, and the radius r of the quarter arc surface CD: ⁇ R+r, 2L 2 R+r.
- a first elastic member is disposed between the groove legs of the two grooved slide plates, and a second elastic member is disposed between the bottom portions of the straight sides of the two T-shaped slide plates.
- the side wall of the rectangular hole in the middle of the second guiding groove has an axis perpendicular to the rotor body.
- the side wall of the upper and lower cutting sections of the first guiding groove has a perpendicular to each other a side guide hole parallel to the axis of the rotor body and parallel to the second guide groove, the second guide groove is connected to the portions on both sides of the axis;
- the grooved slide plate is provided at the bottom of the two groove legs near the edge a first air guiding hole, the distance between the first air guiding hole and the outer side of the slotted sliding plate is consistent with the radius of the rotor body, and the height of the first guiding hole is matched with the side guiding hole;
- the bottom of the straight edge of the T-shaped sliding plate is provided with The two guiding holes, the distance between the second
- the first guide hole is aligned with the side guide hole and the second guide groove is divided
- the portions on both sides of the axis communicate with each other, so that the liquid in the second guiding groove can flow through the guiding hole when the second combined sliding plate slides; otherwise, when the two ends of the second combined sliding plate are respectively located in the quarter arc
- the surface AB and the quarter arc surface CD segment are aligned
- the second air guiding hole is aligned with the intermediate air guiding hole
- the first guiding groove is separated from the portions on both sides of the axis to make the first combined sliding plate slide.
- the liquid in the first guiding groove can flow through the flow guiding hole.
- the upper end surface of the rotor body is machined with a counterbore, and the permanent magnet element is mounted in the counterbore.
- the permanent magnet element provides a magnetic signal, and the rotational speed and number of revolutions of the rotor can be determined based on monitoring the magnetic signal.
- the upper cover plate is made of a non-ferromagnetic material. Avoid shielding the magnetic signal.
- the upper cover and the lower cover are both flat plates, the center of the upper cover is processed with a first bearing hole, the center of the lower cover is processed with a second bearing hole, the first bearing hole is a through hole, and the second bearing hole is The blind end is coaxial; the upper end of the rotor body is coaxially machined with a drive shaft that cooperates with the first bearing bore, and the lower end is coaxially machined with a centering shaft that mates with the second bearing bore.
- the heterogeneous cavity prime mover comprises a housing having a profiled inner cavity, an inlet, an outlet, an inlet guide groove and an outlet guide groove, and an upper cover and a lower cover mounted on both end faces of the housing to form a sealed cavity, A rotor is mounted in the sealed chamber.
- the profiled inner cavity of the casing is a plane symmetrical closed cylinder surface
- the closed cylinder surface is composed of a quarter arc surface AB, a second transition arc surface BC, a quarter arc surface CD and a first transition arc surface
- the DA is connected in sequence
- the quarter arc surface AB is coaxial with the quarter arc surface CD
- the common axis is (9.
- the radius R of the quarter arc surface AB is larger than the quarter arc surface
- the radius r of the CD The first transition arc surface DA and the second transition arc surface BC have the same shape and size, and the position is symmetrical.
- the end point A of the quarter arc surface AB is tangent to the end point A of the first transition arc surface DA , forming a smooth transition.
- the end point B of the quarter arc surface AB is tangent to the end point B of the second transition arc surface BC, forming a smooth transition.
- the end point D of the quarter arc surface CD and the first transition arc surface The endpoint D of the DA is tangent to form a smooth transition.
- the end point C of the quarter arc surface CD is tangent to the end point C of the second transition arc surface BC, forming a smooth transition.
- the first transition arc surface DA and the second transition arc The shape and size of the face BC satisfy the relationship: the common axis of the quarter-circle plane AB and the quarter-circle plane CD (and perpendicular to the common axis ⁇ Arbitrary straight line is a first transition and a second transition arc DA arc cut line BC is the length ce ee of greater than or equal to a quarter and the quarter arc surface AB radius and the circular arc surface of the CD, i.e. L Ce ⁇ R+r.
- the inlet and the outlet on the casing are respectively opened in the region of the first transitional arc surface DA and the second transitional arc surface BC.
- the inlet guide channel is opened in the region of the first transitional arc surface DA, At the end point A, it terminates at the end point D.
- the outlet guide groove is opened in the area of the second transitional arc surface BC, starting from the end point B, ending at the end point.
- the material of the housing should be made according to the nature of the working medium and the working condition parameters. And other technical requirements, such as cast iron, stainless steel, copper alloys, aluminum alloys, etc.
- the upper cover and the lower cover are both flat plates, the center of the upper cover is processed with a first bearing hole, and the center of the lower cover is processed with a second bearing hole, the first bearing hole is a through hole, and the second bearing hole is a blind hole .
- the cover material must meet the magnetic flux requirements. Therefore, non-ferromagnetic materials such as stainless steel, copper alloy, and aluminum alloy should be used.
- the rotor is composed of a rotor body, a first combined slide, a second combined slide, and a permanent magnet element.
- the middle part of the rotor body is a cylinder machined with a cross-shaped guide groove.
- the upper end of the cylinder body is coaxially machined with a transmission shaft, and the lower end of the cylinder body is coaxially machined with a centering shaft.
- the cross guide groove on the rotor body is composed of a first guide groove and a second guide groove, and the guide faces of the two guide grooves are parallel to the axis of the rotor body (9.
- the first guide groove and the second guide groove are both centered Symmetrically, the two wings of each guiding groove are cut into the rotor body at a certain depth along the radial direction of the rotor body, and the cutting section penetrates along the axial direction of the rotor body.
- the middle of the second guiding groove is a rectangular hole penetrating in the radial direction of the rotor body.
- the first guiding groove is cut into the rotor body by the upper end surface and the lower end surface of the rotor body respectively along the axial direction of the rotor body, and the cutting portion penetrates in the radial direction of the rotor body at the root of the transmission shaft and the centering shaft respectively. Passing through the middle rectangular hole of the second guiding groove.
- the middle portion of the cylindrical body of the rotor body has an intermediate guiding hole perpendicular to the axis of the rotor body (and parallel to the first guiding groove, the intermediate guiding hole will be the first guiding groove)
- the sub-section is on the axis (the parts on both sides are connected to each other.
- the cylinder of the rotor body is near the root of the drive shaft and close to the root of the centering shaft
- the first combined slide is composed of two grooved slides of the same shape and size and two first elastic The components are combined.
- the grooved slide plate is machined with a first flow guiding hole at the bottom of the two groove legs near the edge.
- the groove legs of the two grooved slide plates are opposite each other, and the two first elastic members are respectively located between the pair of groove legs.
- the second combination slide is composed of two T-shaped slide plates of the same shape and size and a second elastic member.
- a second flow guiding hole is formed at the bottom of the ⁇ -shaped slide near the edge.
- the bottoms of the two z-shaped slides are opposite each other, and the second elastic element is located between the bottoms of the two T-shaped slides.
- the thickness of the grooved slide is equal to the width of the first guide groove.
- the thickness of the ⁇ -shaped slide is equal to the width of the second guide groove.
- the first combined slide plate is mounted in a first guiding groove of the rotor body in a sliding fit manner
- the second combined slide plate is mounted in a second guiding groove of the rotor body in a sliding fit manner.
- the length of the grooved slide plate satisfies the relationship between the length of the T-shaped slide plate, the radius R of the quarter-arc surface AB, and the radius r of the quarter-arc surface CD: 2L ⁇ +r, 2L 2 ⁇ R+ r .
- the upper end surface of the rotor body is machined with a counterbore, and the permanent magnet element is mounted in the counterbore.
- the rotor is rotatably engaged with the first bearing hole of the upper cover and the second bearing hole of the lower cover through the transmission shaft and the centering shaft on the rotor body to rotate in the sealed cavity.
- the rotor is matched with the sliding of the cylindrical surface of the rotor body and the quarter arc surface CD of the inner cavity of the profiled surface
- the upper end surface of the rotor body is slidably engaged with the upper cover plate
- the lower end surface of the rotor body and the lower cover plate are a sliding fit, a sliding fit of the first combined slide and the second combined slide to the quarter arc surface AB of the profiled inner cavity, and a sliding fit of the first combined slide and the first guide groove and a second combined slide and
- the sliding fit of the two guiding grooves constitutes an internal leakage prevention sealing system.
- the T-shaped slide plate in the area of the quarter arc surface CD The second diversion hole and the intermediate diversion hole of the rotor body are just advantages In the coaxial position, the two sides of the first guiding groove are connected.
- the groove type skateboard in the quarter arc surface CD area The first air guiding hole and the side air guiding hole of the rotor body are just in a coaxial position, and the two sides of the second guiding groove are connected.
- the pressure difference between the inlet and the outlet drives the rotor to rotate, and the transmission axially outputs the rotational power.
- the rotor rotates in the direction of A ⁇ B ⁇ C ⁇ D, and the second transitional arc surface BC of the profiled cavity pushes the first combined slide and the second combination The skateboard slides across.
- the rotor rotates in the direction of B ⁇ A ⁇ D ⁇ C, and the first transitional arc surface DA of the profiled cavity pushes the first combined slide and the second combination The skateboard slides across.
- the second on the T-shaped slide on the lower portion of the second combined slide The two air guiding holes are coaxial with the intermediate air guiding holes on the rotor body, and the left and right cavity portions between the two slotted sliding plates of the first combined sliding plate are connected to pass the fluid in the right side cavity.
- the second air guiding hole and the intermediate air guiding hole flow into the left side cavity, and at the same time, the second air guiding hole and the intermediate air guiding hole have a certain damping effect on the sliding of the first combined sliding plate.
- the first on the slotted slide on the lower portion of the first combination slide a diversion hole is in contact with the rotor
- the position of the side guide holes on the body is coaxial, and the left and right pairs of cavity portions between the two T-shaped slide plates of the second combined slide plate communicate with each other, so that the fluid in the right side cavity passes through the first guide hole and the side wings
- the guiding hole flows into the left cavity, and at the same time, the first guiding hole and the side guiding hole have a certain damping effect on the sliding of the second combined sliding plate.
- the rotor type structure realizes the conversion from fluid pressure energy to rotational mechanical energy, and has a flow metering function of overcurrent.
- the differential cavity prime mover Since the rotor cooperates with the profiled cavity to form a dynamic sealing mechanism in the sealed cavity, the differential cavity prime mover has high energy conversion efficiency, and has the characteristics of easy starting and low speed stability.
- the elastic element makes the length of the combined slide plate variable, so the rotor has automatic wear compensation capability and a certain anti-seize ability. These two characteristics, the former helps the prime mover to maintain stable measurement accuracy, and the latter makes the prime mover have better security.
- the rotor type drive, simple structure and flow metering function enable the special cavity prime mover to adapt to a wide range of flow, pressure and viscosity, so it can be used as a basic model for designing different types of prime movers.
- the fluid flow is measured by the standard volume method, and the fluid leakage can be restricted by the dynamic seal design, so the metering accuracy of the volumetric flow meter can be achieved.
- Figure 1 is a schematic diagram of the structure and working principle of the hetero-cavity prime mover, wherein (a) is a schematic view of the rotor in an arbitrary rotational position, and 0)) is a schematic view of the rotor in a position to form a standard volume;
- Figure 2 is a hetero-cavity prime mover Longitudinal section view;
- Figure 3 is a schematic structural view of the housing, wherein (a) is a front view of the housing, and 0)) is a left side view of the housing;
- FIG. 4 is a schematic structural view of a rotor body, wherein (a) is a front view of the rotor body, 0)) is a left side view of the rotor body, and (C) is a top view of the rotor body;
- Figure 5 is a schematic view of a combined slide plate composed of two groove-shaped slide plates and elastic members
- Figure 6 is a schematic view of a combined slide plate composed of two T-shaped slide plates and elastic members
- Figure 7 is a schematic view of a molding line of a profiled inner cavity
- Figure 8 is an exploded view of the contoured cavity prime mover housing and rotor.
- Example 1 A heterogeneous cavity prime mover, with reference to Figs. 1 to 8.
- This device includes different a casing 1 of the profile inner cavity, the inlet 2, the outlet 3, the inlet guide groove 4 and the outlet guide groove 5, and a sealing chamber formed by the upper cover 10 and the lower cover 11 mounted on both end faces of the casing 1, A rotor is mounted within the sealed chamber.
- the profiled inner cavity of the casing 1 is a plane symmetrical closed cylinder surface, the closed cylinder surface is composed of a quarter arc surface AB, a second transition arc surface BC, a quarter arc surface CD and a first transition arc
- the surface DA is connected in sequence, wherein the quarter arc surface AB is coaxial with the quarter arc surface CD, and the common axis is the axis (9, (see Fig. 3).
- the radius of the quarter arc surface R is larger than the radius r of the quarter arc surface CD.
- the first transition arc surface DA and the second transition arc surface BC have the same shape and size, and the position is symmetrical.
- End point A of the quarter arc surface AB Tangent to the end point A of the first transitional arc surface DA, forming a smooth transition.
- the end point B of the quarter arc surface AB is tangent to the end point B of the second transition arc surface BC, forming a smooth transition.
- the end point D of the arcuate CD is tangent to the end point D of the first transitional arc surface DA to form a smooth transition.
- the end point C of the quarter arc plane CD is tangent to the end point C of the second transition arc plane BC, Form a smooth transition.
- the forming line of the second transitional arc surface BC and the forming line of the first transitional arc surface DA can be expressed by the following polar coordinate equations respectively (see Fig. 7): p ;, , 560(i?-r) G4 2688(i?-r) g5
- the inlet 2 and the outlet 3 on the ⁇ ⁇ housing 1 are respectively opened in the region of the first transitional arc surface DA and the second transitional arc surface BC, and in general, the two are coaxial.
- the inlet guide groove 4 is opened in the region of the first transitional arc surface DA, starting at the end point ⁇ and ending at the end point D.
- the outlet guide groove 5 is opened in the region of the second transitional arc surface BC, starting at the end point B and ending at the end point.
- Both the upper end face 30 and the lower end face 31 of the housing 1 are smooth planes which are parallel to each other and perpendicular to the common axis 0 of the quarter arc face AB of the profiled cavity and the quarter arc face CD.
- the upper cover 10 and the lower cover 11 are flat plates, and the flatness thereof is matched with the upper end surface 30 and the lower end surface 31 of the housing 1, respectively, and can form a sealing structure with the upper end surface 30 and the lower end surface 31 of the housing 1 by means of a planar fit.
- the center of the upper cover 10 is machined with a first bearing hole 12, and the center of the lower cover 11 is machined with a second bearing hole 13, the first bearing hole 12 is a through hole, and the second bearing hole 13 is a blind hole.
- Two pieces The material of the cover plate may be the same as that of the housing 1.
- the materials of the upper cover 10 and the lower cover 11 are prepared, and in addition to factors such as the nature of the working medium and working parameters, the flux requirements must be met, so non-ferrous materials should be used.
- Magnetic materials such as stainless steel, copper alloys, aluminum alloys, etc., stainless steel is used in this example.
- the rotor is composed of a rotor body 6, a first combined slide 8, a second combined slide 9, and a permanent magnet element 7.
- the middle portion of the rotor body 6 is a cylinder machined with a cross-shaped guide groove.
- the upper end of the cylinder body is coaxially machined with a transmission shaft 14, and the lower end of the cylinder body is coaxially machined with a centering shaft 15.
- the radius of the rotor body 6 is equal to the radius r of the quarter arc surface CD, that is, the height z of the rotor body 6 is equal to the height of the casing 1, that is, the cross-shaped guide groove on the rotor body 6 is
- a guiding groove 20 and a second guiding groove 21 are both centrally symmetrical, and the guiding surfaces are parallel to the axis 0 of the rotor body 6.
- the two wings of each of the guide grooves are cut into the rotor body 6 at a constant depth in the radial direction of the rotor body 6, and the cut-in sections are simultaneously penetrated in the axial direction of the rotor body 6.
- the middle portion of the second guide groove 21 is a rectangular hole that penetrates the second guide groove 21 in the radial direction of the rotor body 6.
- the first guiding groove 20 is cut into the rotor body 6 by the upper end surface 22 and the lower end surface 23 of the rotor body 6 in the axial direction of the rotor body 6, respectively, and the cutting portion penetrates in the radial direction of the rotor body 6 and is respectively driven.
- the root of the shaft 14 and the centering shaft 15 passes between the central rectangular hole of the second guide groove 21.
- the middle portion of the cylindrical body of the rotor body 6 has an intermediate flow guiding hole 17 perpendicular to the axis of the rotor body 6 (and parallel to the first guiding groove 20, and the first guiding groove 20 is divided at the axis (the portions on both sides communicate with each other.
- the cylinder of the body 6 has a side guide hole 16 perpendicular to the axis of the rotor body 6 at a position close to the root of the transmission shaft 14 and near the root of the centering shaft 15 (the second guide groove 21 is parallel to the second guide groove 21, and the second The guide grooves 21 are connected to each other at portions on both sides of the axis 0.
- the upper end surface 22 of the rotor body 6 is machined with a counterbore 25, a permanent magnet element 7 is installed in the counterbore 25.
- the permanent magnet element 7 may be a cylindrical magnetic steel standard member, which may be assembled by pressing it into the counterbore 25 in an interference fit manner.
- the material of the rotor 6 should be determined according to the nature of the working medium, working parameters and other factors, such as stainless steel, copper alloy, etc., stainless steel is used in this example.
- the first combination slide plate 8 is composed of two groove-shaped slide plates 33 of the same shape and size and two first elastic members 27.
- the top portion 26 of the grooved slide plate 33 is a circular arc surface having a smaller radius or a curved surface designed to have other shapes, and a first flow guiding hole 18 is formed at the bottom of the two groove legs near the edge.
- a hole can be formed in each of the bottom edges of the two groove legs of the grooved slide plate 33.
- the groove legs of the two grooved slide plates 33 are opposite to each other, and the two first elastic members 27 are respectively located between the pair of groove legs, so that the two groove-shaped slide plates 33 generate mutual thrust.
- the second combination slide 9 is composed of two T-shaped slide plates 34 of the same shape and size and a second elastic member 29.
- the top portion 28 of the T-shaped slide plate 34 is a circular arc surface having a radius smaller than A or a curved surface designed to have other shapes, and a second flow guiding hole 19 is formed near the edge of the bottom of the T-shaped slide plate 34.
- a bore can be formed at the bottom edge of the T-shaped slider 34.
- the bottoms of the two T-shaped slide plates 34 are opposite each other, and the second elastic member 29 is located between the bottoms of the two T-shaped slide plates 34, so that the two T-shaped slide plates 34 generate mutual thrust.
- the thickness of the grooved slide 33 should be equal to the width of the first guide groove 20, and the thickness of the T-shaped slide 34 should be equal to the width of the second guide groove 21.
- the first combination slide plate 8 is mounted in a first guide groove 20 of the rotor body 6 in a sliding fit manner
- the second combination slide plate 9 is mounted in the second guide groove 21 of the rotor body 6 in a sliding fit manner.
- the length of the slotted slide 33, the length 2 of the T-shaped slide 34 and the radius R of the quarter arc surface AB and the radius of the quarter arc surface CD The following relationship is satisfied between r:
- the material of the grooved slide plate 33 and the T-shaped slide plate 34 should be considered in consideration with the rotor body 6 and the casing 1.
- the material hardness of the side of the grooved slide plate 33 and the T-shaped slide plate 34 on the side of the inner wall of the casing 1 is smaller than that of the casing 1. hardness.
- the materials of the first elastic member 27 and the second elastic member 29 are mainly determined according to factors such as the nature of the working medium, operating parameters, working life, and the like, and spring steel is used in this example.
- the rotor is rotatably engaged with the first bearing hole 12 of the upper cover 10 and the second bearing hole 13 of the lower cover 11 through the drive shaft 14 and the centering shaft 15 of the rotor body 6, respectively, to rotate within the sealed cavity.
- the rotor is fitted through the sliding surface of the cylindrical surface 24 of the rotor body 6 and the quarter arc surface CD of the contoured surface cavity, and the upper end surface 22 of the rotor body 6 is slidably engaged with the upper cover 10, and the lower portion of the rotor body 6
- the sliding fit of the slot 20 and the sliding engagement of the second combination slide 9 with the second guide slot 21 constitute an internal leakage prevention seal system.
- the T shape in the CD area of the quarter arc surface The second air guiding hole 19 of the sliding plate 34 should be in a coaxial position with the intermediate flow guiding hole 17 of the rotor body 6, and the two sides of the first guiding groove 20 are communicated.
- the pressure difference between the fluid between the inlet 2 and the outlet 3 drives the rotor to rotate, and the drive shaft 9 outputs the power to the outside.
- the rotor is driven to rotate (the slotted slide 33 and the T-shaped slide 34 alternately enter the AB area), and the rotary shaft is outputted outward by the drive shaft 14.
- the flow metering because the first combination slide 8 and the second combined slide 9 are perpendicularly intersected, when one set of combined slides (for example, the first combined slide 8) is in the AC position, another set of combined slides (second The combination slide 9) is just in the BD position, as shown in Figure 1 (a).
- a space area surrounded by two sets of combined slides and a quarter arc surface AB of the shaped cylindrical cavity in the sealed cavity constitutes a standard volume Q.
- Four revolutions of Q are formed per revolution of the rotor, while four standard volumes (4 Q ) of fluid are discharged from outlet 3.
- the AB space region constituting the standard volume is the metering space of the heterogeneous cavity prime mover, also referred to as the metering chamber.
- the fluid volume flow through the cavity during the operation of the heterogeneous prime mover is calculated according to the following formula:
- V NV Q (4).
- the motion control of the combined skateboard To examine the movement of the combined skateboard during the working process of the abnormal cavity prime mover, the initial position of the first combined slide 8 is AC, and the initial position of the second combined slide 9 is BD, see Fig. 1 (a) .
- the left end (upper end) of the first combination slide plate 8 is located at the boundary A of the 1/4 arc surface AB and the first transition arc surface DA, and the right end (lower end) thereof is located at the 1/4 arc surface CD
- the boundary C with the second transitional arc surface BC; the right end (upper end) of the second combined slide plate 9 is located at the boundary B of the 1/4 arc surface AB and the second transition arc surface BC, and its left end (lower end) is located at 1 /4
- the first combined slide plate 8 is moved to the BD position from the AC position, that is, during the rotation through 90° through the metering chamber, the upper and lower ends thereof are respectively maintained with the 1/4 arc surface AB and the 1/4 arc surface CD of the inner cavity.
- the elastic contact so that the length of the first combined slide 8 does not change and remains stationary with respect to the rotor body 6.
- the right end of the second combination slide 9 is rotated by B to C along the second transitional arc surface BC, and the left end thereof is rotated by D to A along the first transitional arc surface DA.
- the second transitional curved surface B pushes the second combined slide 9 to slide in the second guide groove 21 of the rotor body 6, and at the same time
- the left end of the second combination slide 9 slides along the first transition arc surface DA until reaching the end point A, at which time the right end of the second combination slide 9 reaches the end point C of the second transition arc surface BC.
- the two combined slides exchange actions, repeating the previous 90° rotation process. Later, the motion of the combined slider periodically repeats the above actions, see Figure 1.
- the flow guiding mechanism inside the rotor in the process that the second combined sliding plate 9 is turned from the AC position to the BD position and the first combined sliding plate 8 is turned from the BD position to the AC position and slides to the left in the first guiding groove 20,
- the second air guiding hole 19 on the lower T-shaped sliding plate 34 of the second combined sliding plate 9 is at a position coaxial with the intermediate guiding hole 17 on the rotor body, and between the two grooved sliding plates 34 of the first combined sliding plate 8.
- the left and right cavity portions are in communication. Since the first combined slide 9 slides to the left, the volume of the left cavity continuously increases to form a negative pressure and the volume of the right cavity continuously decreases to form a positive pressure, so the fluid in the right cavity passes through the second guide hole.
- the second air guiding hole 19 and the intermediate air guiding hole 17 play the role of releasing the internal cavity pressure of the rotor to ensure the smooth rotation of the rotor, and at the same time, the second guiding hole 19 and the intermediate guiding hole 17 are combined with the guiding hole pair.
- the sliding of the sliding plate and even the rotation of the rotor also exert a certain damping effect.
- the lower portion of the first combination slide 8 is at a position coaxial with the side wing flow guiding hole 16 on the rotor body, and the left and right cavity portions between the two T-shaped sliding plates 34 of the second combined sliding plate 9 Connected. Since the volume of the right side cavity continuously increases and the volume of the left side cavity continuously decreases, the fluid in the right side cavity flows into the left side cavity through the first flow guiding hole 18 and the side wing guiding hole 16.
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Abstract
A prime motor with a special-shaped cavity includes a shell (1), an upper cover plate (10) and a lower cover plate (11), wherein the shell (1) is provided with a special-shaped surface inner cavity, an inlet (2) and an outlet (3), and the upper cover plate (10) and the lower cover plate (11) are respectively arranged on each end face of the shell (1). A sealed cavity is formed by the shell (1), the upper cover plate (10) and the lower cover plate (11). A rotor arranged in the sealed cavity includes a rotor body (6), a first combined slide plate (8) and a second combined slide plate (9). The rotor body (6) is a cylinder, and a first guide groove (20) and a second guide groove (21) are decussately arranged in the rotor body (6) in its radial direction. The first combined slide plate (8) and the second combined slide plate (9) are sliding disposed in the first guide groove (20) and the second guide groove (21), and their both ends are attached with the special-shaped surface inner cavity. The height of the special-shaped surface inner cavity is equal to the heights of the first combined slide plate (8), the second combined slide plate (9) and the rotor body (6). The rotor is driven to rotate by the pressure difference between the inlet and the outlet so that the prime motor can output power and the flow rate of the fluid can be calculated by counting the rotation cycle of the rotor.,
Description
异型腔原动机 技术领域 Hetero-cavity prime mover
本发明涉及异型腔原动机, 属流体机械和能源技术领域。 The invention relates to a heterogeneous cavity prime mover, and belongs to the technical field of fluid machinery and energy.
背景技术 Background technique
原动机是将水能、 风能、 热能、 电能等自然能量或人造能量转化为机 械原动力的机械装置, 可以按照所使用能源类型的区别划分成不同的种类, 例如水轮机、 风力机、 燃气轮机、 蒸汽机、 电动机、 液压马达等。 其中水 轮机和液压马达属液力原动机, 前者能够将液体 (水) 的动能转化为输出 轴的旋转驱动力, 后者则将液体的压力能转化为输出轴的旋转驱动力。 原 动机作为现代生产和生活的主要动力来源, 其技术水平, 不仅直接影响能 源利用率和其它资源消耗, 而且与保障安全生产和降低产出成本密切相关。 因此, 现代经济和产业技术的发展对原动机提出了更高的要求, 包括能量 效率、 功率范围、 转动速度、 运转稳定性、 工作可靠性、 流量可调节性、 结构复杂性、 强度、 重量、 体积、 安装条件、 可维护性、 制造工艺性等诸 多方面。 The prime mover is a mechanical device that converts natural or artificial energy such as water, wind, heat, and electric energy into mechanical motive force. It can be divided into different types according to the type of energy used, such as turbines, wind turbines, gas turbines, steam engines, Electric motor, hydraulic motor, etc. Among them, the hydraulic turbine and the hydraulic motor are hydraulic prime movers. The former can convert the kinetic energy of the liquid (water) into the rotational driving force of the output shaft, and the latter converts the pressure energy of the liquid into the rotational driving force of the output shaft. As the main source of power for modern production and life, prime mover's technical level not only directly affects energy utilization and other resource consumption, but also is closely related to ensuring safe production and reducing output costs. Therefore, the development of modern economy and industrial technology puts higher demands on the prime mover, including energy efficiency, power range, rotational speed, operational stability, operational reliability, flow adjustability, structural complexity, strength, weight, Volume, installation conditions, maintainability, manufacturing processability and many other aspects.
现有每一个主要类型的原动机, 都有经过长期研究和使用形成的一些 基本结构形式。 例如在水轮机方面, 有反击式水轮机和冲击式水轮机两大 类, 其中反击式水轮机又分为轴流式、 贯流式、 混流式及斜流式等结构形 式。 又如液压马达有齿轮式、 叶片式、 径向柱塞式和轴向柱塞式几种基本 结构类型。 但是, 仅凭改进和完善现有形式的原动机, 并不能完全适应新 的技术和经济性需求。 这是由于原动机的一些主要技术性能指标之间存在 着相互制约, 而在原动机的原有结构形式下, 这些矛盾 (与原动机的特定
构造和工作特性有关) 难以得到有效解决。 水轮机的能量转换效率、 抗空 化能力、 比转速三项性能, 就是这种情况。 液压马达的低速稳定性、 转矩 脉动、 容积效率、 结构复杂度之间也有同样的问题。 Each of the main types of prime movers currently has some basic structural forms that have been formed through long-term research and use. For example, in the aspect of hydraulic turbines, there are two types of counter-turbine turbines and impact turbines, and the counter-turbine turbines are further divided into axial flow type, cross flow type, mixed flow type and diagonal flow type. Another example is the hydraulic motor with several basic structural types: gear type, vane type, radial piston type and axial plunger type. However, simply improving and refining the existing form of prime mover does not fully adapt to new technical and economic needs. This is because there are mutual constraints between some of the main technical performance indicators of the prime mover, and under the original structural form of the prime mover, these contradictions (specific with the prime mover) The structure is related to the working characteristics) It is difficult to solve it effectively. This is the case for the turbine's energy conversion efficiency, cavitation resistance, and specific speed. The same problem exists between the low speed stability of the hydraulic motor, torque ripple, volumetric efficiency, and structural complexity.
因此, 克服现有原动机存在的缺陷, 需要寻求新的结构形式和工作原 理。 此外, 现有的原动机一般都不能计量流量, 而计算机网络技术的广泛 应用和生产管理科学化的发展趋势, 必然会要求原动机具备流量计量功能。 发明内容 Therefore, to overcome the shortcomings of existing prime movers, it is necessary to seek new structural forms and working principles. In addition, the existing prime movers generally cannot measure the flow rate, and the widespread application of computer network technology and the scientific development trend of production management will inevitably require the prime mover to have a flow metering function. Summary of the invention
本发明的目的是提供一种构造简单、 可靠性好、 适用范围广并具有计 量功能的转子型液力原动机一异型腔原动机。 SUMMARY OF THE INVENTION It is an object of the present invention to provide a rotor type hydraulic prime mover-type cavity prime mover which is simple in construction, reliable in reliability, wide in application range, and has a measuring function.
本发明解决其技术问题所采用的技术方案为: 一种异型腔原动机, 包 括带有异型面内腔、 进口、 出口的壳体与安装在壳体两端面上的上盖板和 下盖板, 壳体与上盖板、 下盖板构成的密封腔, 在密封腔内安装有转子, 转子包括转子本体、 第一组合滑板、 第二组合滑板, 转子本体为圆柱体, 转子本体径向开有十字交叉的第一导向槽和第二导向槽, 第一组合滑板和 第二组合滑板分别可滑动安装在第一导向槽和第二导向槽中, 第一组合滑 板两端和第二组合滑板的两端同时与异型面内腔贴合, 第一组合滑板、 第 二组合滑板和转子本体的高度与异型面内腔的高度一致。 组合滑板的两端 始终与异型面内腔贴合, 且组合滑板、 转子本体高度与异型面内腔的高度 一致, 使组合滑板两侧相对密封, 避免内泄。 The technical solution adopted by the present invention to solve the technical problem thereof is as follows: a special-shaped cavity prime mover, comprising a housing with a profiled inner cavity, an inlet and an outlet, and an upper cover and a lower cover mounted on both end faces of the housing a sealing cavity formed by the casing and the upper cover plate and the lower cover plate, wherein the rotor is mounted in the sealing cavity, the rotor comprises a rotor body, a first combined sliding plate, a second combined sliding plate, the rotor body is a cylindrical body, and the rotor body is radially opened a first guiding groove and a second guiding groove having a cross, the first combined sliding plate and the second combined sliding plate are respectively slidably mounted in the first guiding groove and the second guiding groove, the first combined sliding plate and the second combined sliding plate Both ends of the two sides simultaneously conform to the inner cavity of the profiled surface, and the heights of the first combined slide plate, the second combined slide plate and the rotor body are consistent with the height of the shaped cavity. Both ends of the combined slide plate are always attached to the inner cavity of the profiled surface, and the height of the combined slide plate and the rotor body are the same as the height of the inner cavity of the profiled surface, so that the sides of the combined slide plate are relatively sealed to avoid internal leakage.
作为优选, 壳体的异型面内腔为平面对称的封闭柱面, 该封闭柱面由 四分之一圆弧面 AB、 第二过渡弧面 BC、 四分之一圆弧面 CD和第一过渡 弧面 DA依次衔接构成, 四分之一圆弧面 AB与四分之一圆弧面 CD共轴,
四分之一圆弧面 AB的半径 R大于四分之一圆弧面 CD的半径 r, 第一过渡 弧面 DA与第二过渡弧面 BC相互对称, 四个弧面的衔接处平滑过渡。各弧 面平滑过渡,如可以使衔接处相切来实现,在四分之一圆弧面 AB区域可以 由异型面内腔、 组合滑板已经转子本体形成密封腔, 作为标准容积进行计 量。 由于异型面内腔为对称结构, 当进口压力小于出口压力时, 转子可以 实现反转, 原动机可以选择正反向输出。 Preferably, the profiled inner cavity of the casing is a plane symmetrical closed cylinder surface, the closed cylinder surface is composed of a quarter arc surface AB, a second transition arc surface BC, a quarter arc surface CD and the first The transitional arc surface DA is connected in sequence, and the quarter arc surface AB is coaxial with the quarter arc surface CD. The radius R of the quarter arc surface AB is greater than the radius r of the quarter arc surface CD, the first transition arc surface DA and the second transition arc surface BC are symmetrical with each other, and the joints of the four arc surfaces are smoothly transitioned. The smooth transition of each arc surface can be realized by tangent to the joint. In the area of the quarter arc surface AB, the sealed cavity can be formed by the rotor body of the profiled surface cavity and the combined slide plate, and is measured as a standard volume. Since the inner cavity of the profiled surface is a symmetrical structure, when the inlet pressure is less than the outlet pressure, the rotor can be reversed, and the prime mover can select the forward and reverse outputs.
作为优选,过四分之一圆弧面 AB和四分之一圆弧面 CD的公共轴线 (9 且垂直于公共轴线( 的任意直线被第一过渡弧面 DA和第二过渡弧面 BC 所截线段 的长度 ee大于或等于四分之一圆弧面 AB与四分之一圆弧面 CD的半径之和。 当 ee大于四分之一圆弧面 AB与四分之一圆弧面 CD的 半径之和时, 组合滑板内设置弹性元件, 当组合滑板旋转到过渡弧面时, 弹性元件将组合滑板向两侧推开使组合滑板两端与异型面内腔壁相配。 当 ee等于四分之一圆弧面 AB与四分之一圆弧面 CD的半径之和时, 可以选 择设置弹性元件保证组合滑板两端与异型面内腔壁相配, 也可以选择不设 置弹性元件, 而使组合滑板的总长度与 ee相等, 组合滑板仅靠转动时异型 面内腔壁对滑板的推动力滑动, 也能保证滑板两端始终与异型面内腔壁相 配。 Preferably, the common axis of the one-quarter arc surface AB and the quarter arc surface CD (9 and perpendicular to the common axis (any straight line is the first transition arc surface DA and the second transition arc surface BC The length ee of the section line is greater than or equal to the sum of the radius of the quarter arc surface AB and the quarter arc plane CD. When ee is greater than a quarter arc surface AB and a quarter arc surface CD when the sum of the radius, the combination of an elastic member slide, when the slide plate is rotated to the combination of a transition arc, the elastic member to both sides of the combination of the slide plate slide within the open ends so that the combination surfaces shaped to match the cavity wall. when equal to e e When the sum of the radius of the quarter arc surface AB and the quarter arc surface CD is selected, the elastic element may be selected to ensure that the two ends of the combined slide plate are matched with the inner wall of the profiled surface, or the elastic element may be omitted. The total length of the combined slide plate is equal to the ee , and the combined slide plate slides only by the pushing force of the inner wall of the profiled surface to the slide plate when rotating, and the two ends of the slide plate are always matched with the inner wall of the profiled face.
作为优选, 壳体上的进口和出口分别开设在第一过渡弧面 DA和第二 过渡弧面 BC的区域内;进口处设置进口导流槽,进口导流槽沿异型面内壁 环向开设, 进口导流槽两端起于端点 A, 止于端点 D; 出口设置出口导流 槽, 出口导流槽沿异型面内壁环向开设。 作为优选, 出口导流槽两端起于 端点 B, 止于端点 。 当组合滑板转动到过渡弧面时, 两个组合滑板之间的
腔体容积随转动而变化, 需要设置导流槽将流体及时导入或者导出, 防止 腔体中的流体受压造成内泄, 保证工作平稳。 Preferably, the inlet and the outlet on the casing are respectively opened in the region of the first transitional arc surface DA and the second transitional arc surface BC; the inlet guide groove is arranged at the inlet, and the inlet guide channel is opened along the inner wall of the profiled surface, Both ends of the inlet guide groove start from the end point A and terminate at the end point D ; the outlet is provided with an outlet guide groove, and the outlet guide groove is opened along the inner wall of the profiled surface. Preferably, both ends of the outlet guide groove start at the end point B and terminate at the end point. When the combination slide is rotated to the transitional arc, between the two combined slides The volume of the cavity changes with the rotation. It is necessary to set the guiding groove to introduce or discharge the fluid in time to prevent the fluid in the cavity from being pressured to cause internal leakage, so as to ensure stable operation.
作为优选, 转子本体与四分之一圆弧面 CD共轴, 转子本体的半径^ 与四分之一圆弧面 CD的半径 r相等。 转子本体转动时与四分之一圆弧面 CD贴合, 便于计量。 Preferably, the rotor body is coaxial with the quarter arc surface CD, and the radius ^ of the rotor body is equal to the radius r of the quarter arc surface CD. When the rotor body rotates, it is attached to the quarter arc surface CD for easy metering.
作为优选, 第一导向槽和第二导向槽均为中心对称结构, 每个导向槽 的两翼均沿转子本体的径向切入转子本体一定深度, 切入段同时沿转子本 体的轴线方向贯通; 第二导向槽的中部是一个沿转子本体径向贯通的矩形 孔, 第一导向槽中部则由转子本体的上端面和下端面分别沿转子本体的轴 线方向切入转子本体, 切入部分同时沿转子本体的径向贯通, 两导向槽相 交处相互隔开。 两导向槽分别对第一组合滑板和第二组合滑板进行导向而 不产生干涉。 Preferably, the first guiding groove and the second guiding groove are both central symmetrical structures, and the two wings of each guiding groove are cut into the rotor body at a certain depth along the radial direction of the rotor body, and the cutting section penetrates along the axial direction of the rotor body; The middle portion of the guiding groove is a rectangular hole penetrating in the radial direction of the rotor body, and the middle portion of the first guiding groove is cut into the rotor body by the upper end surface and the lower end surface of the rotor body respectively along the axial direction of the rotor body, and the cutting portion is along the diameter of the rotor body. Toward, the intersection of the two guiding grooves is separated from each other. The two guide grooves respectively guide the first combined slide and the second combined slide without interference.
作为优选, 第一组合滑板包括两块一侧边中心开槽的槽形滑板, 开槽 侧的两端形成两个槽腿, 两块槽形滑板结构相同, 槽腿相互正对, 槽腿与 第一导向槽的中部相配; 第二组合滑板包括两块结构相同的 T 形滑板, T 形滑板直边相互正对, T形滑板直边与第二导向槽中部矩形孔相配。 Preferably, the first combined slide plate comprises two groove-shaped slide plates with one side of the center groove, and the two ends of the grooved side form two groove legs, the two groove-shaped slide plates have the same structure, the groove legs are opposite to each other, and the groove legs are The middle portion of the first guiding groove is matched; the second combined sliding plate comprises two T-shaped sliding plates of the same structure, the straight sides of the T-shaped sliding plates are opposite to each other, and the straight sides of the T-shaped sliding plate are matched with the rectangular holes in the middle of the second guiding groove.
作为优选, 槽形滑板的长度 与 T形滑板的长度 、 四分之一圆弧面 AB的半径 R和四分之一圆弧面 CD的半径 r之间满足关系: ^R+r, 2L2 R+r。 Preferably, the length of the slotted slide plate satisfies the relationship between the length of the T-shaped slide plate, the radius R of the quarter arc surface AB, and the radius r of the quarter arc surface CD: ^R+r, 2L 2 R+r.
做为优选, 两块槽形滑板的槽腿之间设有第一弹性元件, 两块 T形滑 板的直边底部之间设有第二弹性元件。 Preferably, a first elastic member is disposed between the groove legs of the two grooved slide plates, and a second elastic member is disposed between the bottom portions of the straight sides of the two T-shaped slide plates.
作为优选, 第二导向槽中部矩形孔的侧壁上有一垂直于转子本体的轴
线且与第一导向槽平行的中间导流孔, 中间导流孔将第一导向槽分处在轴 线两侧的部分相互连通; 第一导向槽中部上下切入段的侧壁上各有一垂直 于转子本体的轴线且与第二导向槽平行的侧翼导流孔, 将第二导向槽分处 在轴线两侧的部分相互连通; 槽形滑板在两只槽腿的底部靠近边缘处各设 有一个第一导流孔, 第一导流孔与槽形滑板外侧边的距离与转子本体半径 一致,第一导流孔的高度与侧翼导流孔相配; T形滑板的直边底部设有第二 导流孔, 第二导流孔与 τ形滑板外侧边的距离与转子本体半径一致, 第二 导流孔的高度与中间导流孔相配。 当第一组合滑板的两端分别位于四分之 一圆弧面 AB和四分之一圆弧面 CD段时,第一导流孔与侧翼导流孔对准并 将第二导向槽分处在轴线两侧的部分相互连通, 使第二组合滑板滑动时, 第二导向槽内的液体能从导流孔中流过; 反之, 当第二组合滑板的两端分 别位于四分之一圆弧面 AB和四分之一圆弧面 CD段时,第二导流孔与中间 导流孔对准并将第一导向槽分处在轴线两侧的部分相互连通, 使第一组合 滑板滑动时, 第一导向槽内的液体能从导流孔中流过。 Preferably, the side wall of the rectangular hole in the middle of the second guiding groove has an axis perpendicular to the rotor body. An intermediate flow guiding hole parallel to the first guiding groove, wherein the intermediate guiding hole communicates with the first guiding groove at a portion on both sides of the axis; the side wall of the upper and lower cutting sections of the first guiding groove has a perpendicular to each other a side guide hole parallel to the axis of the rotor body and parallel to the second guide groove, the second guide groove is connected to the portions on both sides of the axis; the grooved slide plate is provided at the bottom of the two groove legs near the edge a first air guiding hole, the distance between the first air guiding hole and the outer side of the slotted sliding plate is consistent with the radius of the rotor body, and the height of the first guiding hole is matched with the side guiding hole; the bottom of the straight edge of the T-shaped sliding plate is provided with The two guiding holes, the distance between the second guiding hole and the outer side of the τ-shaped sliding plate are the same as the radius of the rotor body, and the height of the second guiding hole matches the intermediate guiding hole. When the two ends of the first combined slide are respectively located on the quarter arc surface AB and the quarter arc surface CD segment, the first guide hole is aligned with the side guide hole and the second guide groove is divided The portions on both sides of the axis communicate with each other, so that the liquid in the second guiding groove can flow through the guiding hole when the second combined sliding plate slides; otherwise, when the two ends of the second combined sliding plate are respectively located in the quarter arc When the surface AB and the quarter arc surface CD segment are aligned, the second air guiding hole is aligned with the intermediate air guiding hole, and the first guiding groove is separated from the portions on both sides of the axis to make the first combined sliding plate slide. The liquid in the first guiding groove can flow through the flow guiding hole.
作为优选, 转子本体的上端面加工有沉孔, 永磁元件安装在沉孔内。 永磁元件提供磁信号, 根据对磁信号监测可以确定转子的转速和转数。 Preferably, the upper end surface of the rotor body is machined with a counterbore, and the permanent magnet element is mounted in the counterbore. The permanent magnet element provides a magnetic signal, and the rotational speed and number of revolutions of the rotor can be determined based on monitoring the magnetic signal.
作为优选, 上盖板采用非铁磁材料。 避免对磁信号的屏蔽。 Preferably, the upper cover plate is made of a non-ferromagnetic material. Avoid shielding the magnetic signal.
作为优选, 上盖板和下盖板均为平板, 上盖板的中心加工有第一轴承 孔, 下盖板的中心加工有第二轴承孔, 第一轴承孔为通孔, 第二轴承孔为 盲孔; 转子本体轴线处的上端同轴加工有与第一轴承孔配合的传动轴, 下 端同轴加工有与第二轴承孔相配的定心轴。 Preferably, the upper cover and the lower cover are both flat plates, the center of the upper cover is processed with a first bearing hole, the center of the lower cover is processed with a second bearing hole, the first bearing hole is a through hole, and the second bearing hole is The blind end is coaxial; the upper end of the rotor body is coaxially machined with a drive shaft that cooperates with the first bearing bore, and the lower end is coaxially machined with a centering shaft that mates with the second bearing bore.
本发明的详述方案如下:
异型腔原动机包括由带有异型面内腔、 进口、 出口、 进口导流槽和出 口导流槽的壳体与安装在壳体两端面上的上盖板和下盖板构成密封腔, 在 密封腔内安装有转子。 The detailed scheme of the present invention is as follows: The heterogeneous cavity prime mover comprises a housing having a profiled inner cavity, an inlet, an outlet, an inlet guide groove and an outlet guide groove, and an upper cover and a lower cover mounted on both end faces of the housing to form a sealed cavity, A rotor is mounted in the sealed chamber.
壳体的异型面内腔为平面对称的封闭柱面, 该封闭柱面由四分之一圆 弧面 AB、 第二过渡弧面 BC、 四分之一圆弧面 CD和第一过渡弧面 DA依 次衔接构成, 四分之一圆弧面 AB与四分之一圆弧面 CD共轴, 公共轴线为 (9。 四分之一圆弧面 AB的半径 R大于四分之一圆弧面 CD的半径 r。 第一 过渡弧面 DA与第二过渡弧面 BC的形状和尺寸相同,位置对称。 四分之一 圆弧面 AB的端点 A与第一过渡弧面 DA的端点 A相切, 形成光滑过渡。 四分之一圆弧面 AB的端点 B与第二过渡弧面 BC的端点 B相切, 形成光 滑过渡。四分之一圆弧面 CD的端点 D与第一过渡弧面 DA的端点 D相切, 形成光滑过渡。四分之一圆弧面 CD的端点 C与第二过渡弧面 BC的端点 C 相切, 形成光滑过渡。第一过渡弧面 DA和第二过渡弧面 BC的形状和尺寸 满足关系: 过四分之一圆弧面 AB和四分之一圆弧面 CD的公共轴线 ( 且 垂直于公共轴线 < 的任意直线被第一过渡弧面 DA和第二过渡弧面 BC所 截线段 ce的长度 ee大于或等于四分之一圆弧面 AB与四分之一圆弧面 CD 的半径之和, 即 Lce ^R+r。 壳体上的进口和出口分别开设在第一过渡弧面 DA和第二过渡弧面 BC的区域内。 进口导流槽开设在第一过渡弧面 DA的 区域内, 起于端点 A, 止于端点 D。 出口导流槽开设在第二过渡弧面 BC的 区域内, 起于端点 B, 止于端点 。 制作壳体的材料, 应根据工作介质的性 质、 工况参数以及其它技术要求选择, 例如铸铁、 不锈钢、 铜合金、 铝合 金等。
上盖板和下盖板均为平板, 上盖板的中心加工有第一轴承孔, 下盖板 的中心加工有第二轴承孔, 第一轴承孔为通孔, 第二轴承孔为盲孔。 盖板 材料除考虑工作介质的性质、 工况参数等因素外, 还须满足磁通要求, 因 此应使用非铁磁材料, 例如不锈钢、 铜合金、 铝合金等。 The profiled inner cavity of the casing is a plane symmetrical closed cylinder surface, the closed cylinder surface is composed of a quarter arc surface AB, a second transition arc surface BC, a quarter arc surface CD and a first transition arc surface The DA is connected in sequence, and the quarter arc surface AB is coaxial with the quarter arc surface CD, and the common axis is (9. The radius R of the quarter arc surface AB is larger than the quarter arc surface The radius r of the CD. The first transition arc surface DA and the second transition arc surface BC have the same shape and size, and the position is symmetrical. The end point A of the quarter arc surface AB is tangent to the end point A of the first transition arc surface DA , forming a smooth transition. The end point B of the quarter arc surface AB is tangent to the end point B of the second transition arc surface BC, forming a smooth transition. The end point D of the quarter arc surface CD and the first transition arc surface The endpoint D of the DA is tangent to form a smooth transition. The end point C of the quarter arc surface CD is tangent to the end point C of the second transition arc surface BC, forming a smooth transition. The first transition arc surface DA and the second transition arc The shape and size of the face BC satisfy the relationship: the common axis of the quarter-circle plane AB and the quarter-circle plane CD (and perpendicular to the common axis < Arbitrary straight line is a first transition and a second transition arc DA arc cut line BC is the length ce ee of greater than or equal to a quarter and the quarter arc surface AB radius and the circular arc surface of the CD, i.e. L Ce ^R+r. The inlet and the outlet on the casing are respectively opened in the region of the first transitional arc surface DA and the second transitional arc surface BC. The inlet guide channel is opened in the region of the first transitional arc surface DA, At the end point A, it terminates at the end point D. The outlet guide groove is opened in the area of the second transitional arc surface BC, starting from the end point B, ending at the end point. The material of the housing should be made according to the nature of the working medium and the working condition parameters. And other technical requirements, such as cast iron, stainless steel, copper alloys, aluminum alloys, etc. The upper cover and the lower cover are both flat plates, the center of the upper cover is processed with a first bearing hole, and the center of the lower cover is processed with a second bearing hole, the first bearing hole is a through hole, and the second bearing hole is a blind hole . In addition to factors such as the nature of the working medium and working parameters, the cover material must meet the magnetic flux requirements. Therefore, non-ferromagnetic materials such as stainless steel, copper alloy, and aluminum alloy should be used.
转子由转子本体、 第一组合滑板、 第二组合滑板以及永磁元件构成。 转子本体的中部为加工有十字交叉导向槽的圆柱体, 圆柱体的上端同轴加 工有传动轴, 圆柱体的下端同轴加工有定心轴。 转子本体的半径 与四分 之一圆弧面 CD的半径 r相等, 即 = ^ 转子本体的高度 ?与壳体的高度 相等, S卩 = 。 转子本体上的十字交叉导向槽由第一导向槽和第二导向 槽组成, 这两个导向槽的导向面都平行于转子本体的轴线 (9。 第一导向槽 和第二导向槽都是中心对称的, 每个导向槽的两翼均沿转子本体的径向切 入转子本体一定深度, 切入段同时沿转子本体的轴线方向贯通。 第二导向 槽的中部是一个沿转子本体径向贯通的矩形孔, 第一导向槽则由转子本体 的上端面和下端面分别沿转子本体的轴线方向切入转子本体一定深度, 切 入部分同时沿转子本体的径向贯通, 并分别在传动轴和定心轴的根部与第 二导向槽的中部矩形孔之间穿过。 转子本体的圆柱体中部有一垂直于转子 本体的轴线 ( 且与第一导向槽平行的中间导流孔, 中间导流孔将第一导向 槽分处在轴线 ( 两侧的部分相互连通。 转子本体的圆柱体在靠近传动轴***的地方和靠近定心轴根部的地方各有一垂直于转子本体的轴线 ( 且与第 二导向槽平行的侧翼导流孔, 将第二导向槽分处在轴线 ( 两侧的部分相互 连通。 The rotor is composed of a rotor body, a first combined slide, a second combined slide, and a permanent magnet element. The middle part of the rotor body is a cylinder machined with a cross-shaped guide groove. The upper end of the cylinder body is coaxially machined with a transmission shaft, and the lower end of the cylinder body is coaxially machined with a centering shaft. The radius of the rotor body is equal to the radius r of the quarter arc surface CD, ie = ^ the height of the rotor body? Equal to the height of the housing, S卩 = . The cross guide groove on the rotor body is composed of a first guide groove and a second guide groove, and the guide faces of the two guide grooves are parallel to the axis of the rotor body (9. The first guide groove and the second guide groove are both centered Symmetrically, the two wings of each guiding groove are cut into the rotor body at a certain depth along the radial direction of the rotor body, and the cutting section penetrates along the axial direction of the rotor body. The middle of the second guiding groove is a rectangular hole penetrating in the radial direction of the rotor body. The first guiding groove is cut into the rotor body by the upper end surface and the lower end surface of the rotor body respectively along the axial direction of the rotor body, and the cutting portion penetrates in the radial direction of the rotor body at the root of the transmission shaft and the centering shaft respectively. Passing through the middle rectangular hole of the second guiding groove. The middle portion of the cylindrical body of the rotor body has an intermediate guiding hole perpendicular to the axis of the rotor body (and parallel to the first guiding groove, the intermediate guiding hole will be the first guiding groove) The sub-section is on the axis (the parts on both sides are connected to each other. The cylinder of the rotor body is near the root of the drive shaft and close to the root of the centering shaft Each side perpendicular to the axis of the rotor body (guide hole and the flanking second guide groove parallel to the second guide groove in the part of the axis points (both sides communicate with each other.
第一组合滑板由两块形状和尺寸完全相同的槽形滑板和两个第一弹性
元件组合而成。 槽形滑板在两只槽腿的底部靠近边缘处各加工有一个第一 导流孔。 两块槽形滑板的槽腿相互正对, 两个第一弹性元件分别位于两对 槽腿之间。 第二组合滑板由两块形状和尺寸完全相同的 T形滑板和一个第 二弹性元件组合而成。 τ形滑板的底部靠近边缘处加工有一第二导流孔。两 块 τ形滑板的底部相互正对,第二弹性元件位于两块 T形滑板的底部之间。 槽形滑板的厚度与第一导向槽的宽度相等。 τ形滑板的厚度与第二导向槽的 宽度相等。 The first combined slide is composed of two grooved slides of the same shape and size and two first elastic The components are combined. The grooved slide plate is machined with a first flow guiding hole at the bottom of the two groove legs near the edge. The groove legs of the two grooved slide plates are opposite each other, and the two first elastic members are respectively located between the pair of groove legs. The second combination slide is composed of two T-shaped slide plates of the same shape and size and a second elastic member. A second flow guiding hole is formed at the bottom of the τ-shaped slide near the edge. The bottoms of the two z-shaped slides are opposite each other, and the second elastic element is located between the bottoms of the two T-shaped slides. The thickness of the grooved slide is equal to the width of the first guide groove. The thickness of the τ-shaped slide is equal to the width of the second guide groove.
槽形滑板的高度 和 T形滑板的高度 ½均等于转子本体的高度 h,即 = h2 = h。第一组合滑板以滑动配合方式安装在转子本体的第一导向槽内, 第二组合滑板以滑动配合方式安装在转子本体的第二导向槽内。 槽形滑板 的长度 与 T形滑板的长度 、 四分之一圆弧面 AB的半径 R和四分之一 圆弧面 CD的半径 r之间满足关系: 2L^+r, 2L2≤R+ r。 转子本体的上 端面加工有沉孔, 永磁元件安装在沉孔内。 The height of the slotted slide and the height of the T-shaped slide are both equal to the height h of the rotor body, ie = h 2 = h. The first combined slide plate is mounted in a first guiding groove of the rotor body in a sliding fit manner, and the second combined slide plate is mounted in a second guiding groove of the rotor body in a sliding fit manner. The length of the grooved slide plate satisfies the relationship between the length of the T-shaped slide plate, the radius R of the quarter-arc surface AB, and the radius r of the quarter-arc surface CD: 2L^+r, 2L 2 ≤R+ r . The upper end surface of the rotor body is machined with a counterbore, and the permanent magnet element is mounted in the counterbore.
转子通过转子本体上的传动轴和定心轴分别与上盖板的第一轴承孔和 下盖板的第二轴承孔旋转配合, 在密封腔内转动。 同时, 转子通过转子本 体的圆柱面与异型面内腔的四分之一圆弧面 CD的滑动配合,转子本体的上 端面与上盖板的滑动配合, 转子本体的下端面与下盖板的滑动配合, 第一 组合滑板和第二组合滑板与异型面内腔的四分之一圆弧面 AB的滑动配合, 以及第一组合滑板与第一导向槽的滑动配合和第二组合滑板与第二导向槽 的滑动配合, 构成防内泄动密封***。 当第二组合滑板的两端分别处在四 分之一圆弧面 AB区域内和四分之一圆弧面 CD区域内时,处在四分之一圆 弧面 CD区域内的 T形滑板的第二导流孔与转子本体的中间导流孔刚好处
于同轴位置, 将第一导向槽的两侧连通。 当第一组合滑板的两端分别处在 四分之一圆弧面 AB区域内和四分之一圆弧面 CD区域内时,处在四分之一 圆弧面 CD 区域内的槽形滑板的第一导流孔与转子本体的侧翼导流孔刚好 处于同轴位置, 将第二导向槽的两侧连通。 The rotor is rotatably engaged with the first bearing hole of the upper cover and the second bearing hole of the lower cover through the transmission shaft and the centering shaft on the rotor body to rotate in the sealed cavity. At the same time, the rotor is matched with the sliding of the cylindrical surface of the rotor body and the quarter arc surface CD of the inner cavity of the profiled surface, the upper end surface of the rotor body is slidably engaged with the upper cover plate, and the lower end surface of the rotor body and the lower cover plate are a sliding fit, a sliding fit of the first combined slide and the second combined slide to the quarter arc surface AB of the profiled inner cavity, and a sliding fit of the first combined slide and the first guide groove and a second combined slide and The sliding fit of the two guiding grooves constitutes an internal leakage prevention sealing system. When the two ends of the second combined slide plate are respectively located in the area of the quarter arc surface AB and the area of the quarter arc surface CD, the T-shaped slide plate in the area of the quarter arc surface CD The second diversion hole and the intermediate diversion hole of the rotor body are just advantages In the coaxial position, the two sides of the first guiding groove are connected. When the two ends of the first combined slide are respectively in the quarter arc area AB area and the quarter arc surface CD area, the groove type skateboard in the quarter arc surface CD area The first air guiding hole and the side air guiding hole of the rotor body are just in a coaxial position, and the two sides of the second guiding groove are connected.
异型腔原动机工作时, 进口和出口之间流体的压力差驱动转子转动, 传动轴向外输出旋转动力。 当进口一侧的流体压力高于出口一侧的流体压 力时, 转子按 A→B→C→D方向转动, 异型面内腔的第二过渡弧面 BC推 动第一组合滑板和第二组组合滑板交叉滑动。 当出口一侧的流体压力高于 进口一侧的流体压力时, 转子按 B→A→D→C方向转动, 异型面内腔的第 一过渡弧面 DA推动第一组合滑板和第二组组合滑板交叉滑动。 转子每转 一周, 在密封腔内的 AB空间区域连续形成 4个标准容积 V0, 使等量流体 (4V0)流过密封腔。 永磁元件向密封腔外发送转子转动周数 N的信号。 通 过异型腔原动机的流体体积流量 , 按以下公式计算: When the heterogeneous cavity prime mover is working, the pressure difference between the inlet and the outlet drives the rotor to rotate, and the transmission axially outputs the rotational power. When the fluid pressure on the inlet side is higher than the fluid pressure on the outlet side, the rotor rotates in the direction of A→B→C→D, and the second transitional arc surface BC of the profiled cavity pushes the first combined slide and the second combination The skateboard slides across. When the fluid pressure on the outlet side is higher than the fluid pressure on the inlet side, the rotor rotates in the direction of B→A→D→C, and the first transitional arc surface DA of the profiled cavity pushes the first combined slide and the second combination The skateboard slides across. Each revolution of the rotor, four standard volumes V 0 are continuously formed in the AB space region in the sealed chamber, so that an equal amount of fluid (4V 0 ) flows through the sealed chamber. The permanent magnet element transmits a signal of the number N of revolutions of the rotor outside the sealed chamber. The fluid volume flow through the heterocavity prime mover is calculated according to the following formula:
V= 4NV V= 4NV
在第二组合滑板由 AC位置转到 BD位置而第一组合滑板由 BD位置转 到 AC位置并在第一导向槽内向左滑动的过程中,第二组合滑板下部的 T形 滑板上的第二导流孔处于与转子本体上的中间导流孔同轴的位置,将第一组 合滑板的两块槽形滑板之间的左右两个空腔部分连通,使右侧空腔内的流体 通过第二导流孔和中间导流孔流入左侧空腔, 同时, 第二导流孔和中间导流 孔对第一组合滑板的滑动产生一定的阻尼作用。在第一组合滑板由 AC位置 转到 BD位置而第二组合滑板由 BD位置转到 AC位置并在第二导向槽内向 左滑动的过程中,第一组合滑板下部的槽形滑板上的第一导流孔处于与转子
本体上的侧翼导流孔同轴的位置,将第二组合滑板的两块 T形滑板之间的左 右两对空腔部分连通,使右侧空腔内的流体通过第一导流孔和侧翼导流孔流 入左侧空腔, 同时, 第一导流孔和侧翼导流孔对第二组合滑板的滑动产生一 定的阻尼作用。 In the process of the second combined slide from the AC position to the BD position and the first combined slide from the BD position to the AC position and sliding to the left in the first guide slot, the second on the T-shaped slide on the lower portion of the second combined slide The two air guiding holes are coaxial with the intermediate air guiding holes on the rotor body, and the left and right cavity portions between the two slotted sliding plates of the first combined sliding plate are connected to pass the fluid in the right side cavity. The second air guiding hole and the intermediate air guiding hole flow into the left side cavity, and at the same time, the second air guiding hole and the intermediate air guiding hole have a certain damping effect on the sliding of the first combined sliding plate. In the process of the first combined slide being turned from the AC position to the BD position and the second combined slide is turned from the BD position to the AC position and sliding to the left in the second guide slot, the first on the slotted slide on the lower portion of the first combination slide a diversion hole is in contact with the rotor The position of the side guide holes on the body is coaxial, and the left and right pairs of cavity portions between the two T-shaped slide plates of the second combined slide plate communicate with each other, so that the fluid in the right side cavity passes through the first guide hole and the side wings The guiding hole flows into the left cavity, and at the same time, the first guiding hole and the side guiding hole have a certain damping effect on the sliding of the second combined sliding plate.
异型腔原动机的主要技术效果: The main technical effects of the heterogeneous cavity prime mover:
( 1 )采用转子型结构实现从流体压力能到转动机械能转换, 同时具备 过流的流量计量功能。 (1) The rotor type structure realizes the conversion from fluid pressure energy to rotational mechanical energy, and has a flow metering function of overcurrent.
(2 ) 零件数量少, 构造简单, 因此工作可靠性好, 容易维护, 且生产 成本较低。 (2) The number of parts is small and the structure is simple, so the work reliability is good, the maintenance is easy, and the production cost is low.
(3 ) 由于转子在密封腔内与异型面腔体配合形成动密封机构, 因此异 型腔原动机具有较高的能量转换效率, 同时还具有容易起动和低速稳定性 好的特点。 (3) Since the rotor cooperates with the profiled cavity to form a dynamic sealing mechanism in the sealed cavity, the differential cavity prime mover has high energy conversion efficiency, and has the characteristics of easy starting and low speed stability.
(4 ) 利用异型面腔体、 导流槽与带有十字交叉组合滑板的转子配合工 作, 使过流流体的流速具有良好的均匀性, 因此传动轴的动力输出比较平 稳, 即转矩脉动轻微。 (4) Using the shaped cavity and the guide groove to work with the rotor with the cross-combined sliding plate, the flow velocity of the over-current fluid has good uniformity, so the power output of the transmission shaft is relatively stable, that is, the torque ripple is slight. .
( 5 ) 弹性元件使组合滑板的长度可变, 因此转子具有磨损自动补偿能 力和一定的防卡死能力。 这两个特点, 前者有助于原动机保持计量精度稳 定, 后者使原动机具有较好的安全性。 (5) The elastic element makes the length of the combined slide plate variable, so the rotor has automatic wear compensation capability and a certain anti-seize ability. These two characteristics, the former helps the prime mover to maintain stable measurement accuracy, and the latter makes the prime mover have better security.
( 6 ) 转子型驱动、 构造简单以及具备流量计量功能的特点, 使异型腔 原动机能够适应较宽的流量、 压力和黏度范围, 因此可以作为设计不同类 型原动机的基础机型。 (6) The rotor type drive, simple structure and flow metering function enable the special cavity prime mover to adapt to a wide range of flow, pressure and viscosity, so it can be used as a basic model for designing different types of prime movers.
(7 ) 各零、 部件相互之间的尺寸协调余地较大, 有利于在满足综合技
术性能要求的前提下, 实现高强度设计。 (7) The size and coordination of each zero and component are large, which is conducive to satisfying the comprehensive technology. Under the premise of technical performance requirements, achieve high-intensity design.
( 8 ) 利用异型面腔体与带有十字交叉组合滑板的转子配合工作, 用标 准容积方式计量流体流量, 同时可以通过动密封设计限制流体内泄, 因此 能够达到容积式流量计的计量精度。 (8) Using the shaped cavity to work with the rotor with the cross-combined slide, the fluid flow is measured by the standard volume method, and the fluid leakage can be restricted by the dynamic seal design, so the metering accuracy of the volumetric flow meter can be achieved.
(9 )可以采用由永磁元件发送磁脉冲和传动轴机械输出转子转动周数 两种方式计量流量及转子的转速, 便于配置闭环控制***灵活调节流量, 适合于数字化、 网络化应用。 (9) It is possible to measure the flow rate and the rotational speed of the rotor by the magnetic pulse transmitted by the permanent magnet element and the number of revolutions of the mechanical output rotor of the drive shaft. It is convenient to configure the closed-loop control system to flexibly adjust the flow, which is suitable for digital and network applications.
附图说明 DRAWINGS
图 1 是异型腔原动机的结构和工作原理示意图, 其中 (a)图为转子处于 任意转动位置的示意图, 0))图为转子处于形成标准容积转动位置的示意图; 图 2是异型腔原动机的纵向剖面图; Figure 1 is a schematic diagram of the structure and working principle of the hetero-cavity prime mover, wherein (a) is a schematic view of the rotor in an arbitrary rotational position, and 0)) is a schematic view of the rotor in a position to form a standard volume; Figure 2 is a hetero-cavity prime mover Longitudinal section view;
图 3是壳体的结构示意图, 其中 (a)图为壳体的主视图, 0))图为壳体的 左视图; Figure 3 is a schematic structural view of the housing, wherein (a) is a front view of the housing, and 0)) is a left side view of the housing;
图 4是转子本体的结构示意图, 其中 (a)图为转子本体的主视图, 0))图 为转子本体的左视图, (C)图为转子本体的俯视图; 4 is a schematic structural view of a rotor body, wherein (a) is a front view of the rotor body, 0)) is a left side view of the rotor body, and (C) is a top view of the rotor body;
图 5是由两块槽形滑板和弹性元件构成的组合滑板的示意图; 图 6是由两块 T形滑板和弹性元件构成的组合滑板的示意图; 图 7是异型面内腔的成型线示意图; Figure 5 is a schematic view of a combined slide plate composed of two groove-shaped slide plates and elastic members; Figure 6 is a schematic view of a combined slide plate composed of two T-shaped slide plates and elastic members; Figure 7 is a schematic view of a molding line of a profiled inner cavity;
图 8是异型腔原动机壳体和转子的分解图。 Figure 8 is an exploded view of the contoured cavity prime mover housing and rotor.
具体实施方式 detailed description
下面通过实施例结合附图对本发明做进一步说明。 The invention will be further illustrated by the following examples in conjunction with the accompanying drawings.
实施例 1 : 一种异型腔原动机, 参照图 1至图 8。 本装置包括由带有异
型面内腔、 进口 2、 出口 3、 进口导流槽 4和出口导流槽 5的壳体 1与安装 在壳体 1两端面上的上盖板 10和下盖板 11构成的密封腔, 在密封腔内安 装有转子。 Example 1: A heterogeneous cavity prime mover, with reference to Figs. 1 to 8. This device includes different a casing 1 of the profile inner cavity, the inlet 2, the outlet 3, the inlet guide groove 4 and the outlet guide groove 5, and a sealing chamber formed by the upper cover 10 and the lower cover 11 mounted on both end faces of the casing 1, A rotor is mounted within the sealed chamber.
壳体 1 的异型面内腔为平面对称的封闭柱面, 该封闭柱面由四分之一 圆弧面 AB、 第二过渡弧面 BC、 四分之一圆弧面 CD和第一过渡弧面 DA 依次衔接构成,其中四分之一圆弧面 AB与四分之一圆弧面 CD共轴, 公共 轴线为轴线 (9, (见图 3 )。 四分之一圆弧面 ΑΒ的半径 R大于四分之一圆弧 面 CD的半径 r。第一过渡弧面 DA与第二过渡弧面 BC的形状和尺寸相同, 位置对称。 第一过渡弧面 DA的端点 A到轴线 ( 的距离 M)等于四分之一 圆弧面 AB的半径 R, 即 AO=R; 第一过渡弧面 DA的端点 D到轴线 ( 的 距离 DO等于四分之一圆弧面 CD的半径 r,即 D0= r;在第一过渡弧面 DA 上, 从端点 A到端点 D, 各点到轴线 ( 的距离 p由 R连续减小到 r, AO称 为第一过渡弧面 DA的长半轴, D( 称为第一过渡弧面 DA的短半轴。第二 过渡弧面 BC的端点 B到轴线 ( 的距离 B( 等于四分之一圆弧面 AB的半 径 R, 即 B( =R; 第二过渡弧面 BC的端点 C到轴线 ( 的距离 C( 等于四分 之一圆弧面 CD的半径 r, 即 C0= r; 在第二过渡弧面 BC上, 从端点 B到 端点 C, 各点到轴线 ( 的距离 p由 R连续减小到 r, B( 称为第二过渡弧面 BC的长半轴, C( 称为第二过渡弧面 BC的短半轴。 四分之一圆弧面 AB 的端点 A与第一过渡弧面 DA的端点 A相切, 形成光滑过渡。 四分之一圆 弧面 AB的端点 B与第二过渡弧面 BC的端点 B相切, 形成光滑过渡。 四 分之一圆弧面 CD的端点 D与第一过渡弧面 DA的端点 D相切, 形成光滑 过渡。 四分之一圆弧面 CD的端点 C与第二过渡弧面 BC的端点 C相切,
形成光滑过渡。 The profiled inner cavity of the casing 1 is a plane symmetrical closed cylinder surface, the closed cylinder surface is composed of a quarter arc surface AB, a second transition arc surface BC, a quarter arc surface CD and a first transition arc The surface DA is connected in sequence, wherein the quarter arc surface AB is coaxial with the quarter arc surface CD, and the common axis is the axis (9, (see Fig. 3). The radius of the quarter arc surface R is larger than the radius r of the quarter arc surface CD. The first transition arc surface DA and the second transition arc surface BC have the same shape and size, and the position is symmetrical. The distance from the end point A of the first transition arc surface DA to the axis (the distance) M) equal to the radius R of the quarter arc surface AB, ie AO=R; the end point D of the first transition arc surface DA to the axis (the distance DO is equal to the radius r of the quarter arc surface CD, ie D0 = r ; on the first transitional arc surface DA, from the end point A to the end point D, the distance from each point to the axis (the distance p is continuously reduced from R to r, AO is called the long semi-axis of the first transitional arc surface DA, D (called the short semi-axis of the first transitional arc surface DA. The end point B of the second transitional arc surface BC to the axis (distance B (equal to the radius R of the quarter arc surface AB, ie B (=R; Two transitional arc BC Point C to the axis (distance C (equal to the radius r of the quarter arc surface CD, ie C0 = r; on the second transition arc BC, from the end point B to the end point C, the distance from each point to the axis) p is continuously reduced from R to r, B (referred to as the long semi-axis of the second transitional arc surface BC, C (referred to as the short semi-axis of the second transitional arc surface BC. End point A of the quarter arc surface AB) Tangent to the end point A of the first transitional arc surface DA, forming a smooth transition. The end point B of the quarter arc surface AB is tangent to the end point B of the second transition arc surface BC, forming a smooth transition. Quarter circle The end point D of the arcuate CD is tangent to the end point D of the first transitional arc surface DA to form a smooth transition. The end point C of the quarter arc plane CD is tangent to the end point C of the second transition arc plane BC, Form a smooth transition.
第一过渡弧面 DA和第二过渡弧面 BC的形状和尺寸满足关系:过四分 之一圆弧面 AB和四分之一圆弧面 CD的公共轴线 0且垂直于公共轴线 ( 的任意直线被第一过渡弧面 DA和第二过渡弧面 BC所截线段 ce的长度 L c'e 等于四分之一圆弧面 AB与四分之一圆弧面 CD的半径之和, 即 Lce=R+n 则第二过渡弧面 BC的成型线和第一过渡弧面 DA的成型线可以分别用以下 极坐标方程式表达 (参看图 7): p ;, , 560(i?-r)g4 2688(i?-r)g5 | 4480(i?-r)g6 2560(R-r) Ql 0<θ<― The shape and size of the first transitional arc surface DA and the second transitional arc surface BC satisfy the relationship: the common axis 0 of the quarter-circle plane AB and the quarter-circle plane CD and perpendicular to the common axis (any The length L c'e of the straight line by the first transitional arc surface DA and the second transitional arc surface BC is equal to the sum of the radius of the quarter arc surface AB and the quarter arc surface CD, that is, L Ce = R + n The forming line of the second transitional arc surface BC and the forming line of the first transitional arc surface DA can be expressed by the following polar coordinate equations respectively (see Fig. 7): p ;, , 560(i?-r) G4 2688(i?-r) g5 | 4480(i?-r) g6 2560(Rr) Ql 0<θ<―
π π π π 2 π π π π 2
560(R-r) 560(R-r)
P = R- 導 (θ-π) P = R-guide (θ-π)
π π η 3π π π η 3π
π<θ<—— π<θ<——
4480(i?-r) 2560(R-r) 2 4480(i?-r) 2560(R-r) 2
(θ-π)6 + (θ-π) (θ-π) 6 + (θ-π)
π π 壳体 1上的进口 2和出口 3分别开设在第一过渡弧面 DA和第二过渡 弧面 BC的区域内, 一般情况下, 二者共轴。进口导流槽 4开设在第一过渡 弧面 DA的区域内, 起于端点 Α, 止于端点 D。 出口导流槽 5开设在第二过 渡弧面 BC的区域内, 起于端点 B, 止于端点 。 壳体 1的上端面 30和下 端面 31均为光滑平面, 二者相互平行并且垂直于异型面内腔的四分之一圆 弧面 AB和四分之一圆弧面 CD的公共轴线 0。 上盖板 10和下盖板 11均为平板, 其平面度分别与壳体 1的上端面 30 和下端面 31匹配, 能够依靠平面配合与壳体 1的上端面 30和下端面 31形 成密封结构。 上盖板 10的中心加工有第一轴承孔 12, 下盖板 11的中心加 工有第二轴承孔 13, 第一轴承孔 12为通孔, 第二轴承孔 13为盲孔。 两块
盖板的材料可以与壳体 1 的材料相同。 当采用永磁铁作为计量信号发送器 件时, 制作上盖板 10和下盖板 11 的材料, 除考虑工作介质的性质、 工况 参数等因素外, 还须满足磁通要求, 因此应使用非铁磁材料, 例如不锈钢、 铜合金、 铝合金等, 本例中选用不锈钢。 The inlet 2 and the outlet 3 on the π π housing 1 are respectively opened in the region of the first transitional arc surface DA and the second transitional arc surface BC, and in general, the two are coaxial. The inlet guide groove 4 is opened in the region of the first transitional arc surface DA, starting at the end point Α and ending at the end point D. The outlet guide groove 5 is opened in the region of the second transitional arc surface BC, starting at the end point B and ending at the end point. Both the upper end face 30 and the lower end face 31 of the housing 1 are smooth planes which are parallel to each other and perpendicular to the common axis 0 of the quarter arc face AB of the profiled cavity and the quarter arc face CD. The upper cover 10 and the lower cover 11 are flat plates, and the flatness thereof is matched with the upper end surface 30 and the lower end surface 31 of the housing 1, respectively, and can form a sealing structure with the upper end surface 30 and the lower end surface 31 of the housing 1 by means of a planar fit. . The center of the upper cover 10 is machined with a first bearing hole 12, and the center of the lower cover 11 is machined with a second bearing hole 13, the first bearing hole 12 is a through hole, and the second bearing hole 13 is a blind hole. Two pieces The material of the cover plate may be the same as that of the housing 1. When a permanent magnet is used as the metering signal transmitting device, the materials of the upper cover 10 and the lower cover 11 are prepared, and in addition to factors such as the nature of the working medium and working parameters, the flux requirements must be met, so non-ferrous materials should be used. Magnetic materials, such as stainless steel, copper alloys, aluminum alloys, etc., stainless steel is used in this example.
转子由转子本体 6、 第一组合滑板 8、 第二组合滑板 9以及永磁元件 7 构成。 转子本体 6 的中部为加工有十字交叉导向槽的圆柱体, 圆柱体的上 端同轴加工有传动轴 14, 圆柱体的下端同轴加工有定心轴 15。 转子本体 6 的半径 与四分之一圆弧面 CD的半径 r相等, 即 = ^转子本体 6的高 度 z与壳体 1的高度 相等, 即 ? = 转子本体 6上的十字交叉导向槽由 第一导向槽 20和第二导向槽 21组成, 这两个导向槽都是中心对称的, 导 向面都平行于转子本体 6的轴线 0。 每个导向槽的两翼均沿转子本体 6的 径向切入转子本体 6—定深度, 切入段同时沿转子本体 6的轴线方向贯通。 第二导向槽 21 的中部是一个矩形孔, 该矩形孔使第二导向槽 21沿转子本 体 6的径向贯通。 第一导向槽 20则由转子本体 6的上端面 22和下端面 23 分别沿转子本体 6的轴线方向切入转子本体 6—定深度, 切入部分同时沿 转子本体 6的径向贯通, 并分别在传动轴 14和定心轴 15的根部与第二导 向槽 21的中部矩形孔之间穿过。 转子本体 6的圆柱体中部有一垂直于转子 本体 6的轴线 ( 且与第一导向槽 20平行的中间导流孔 17, 将第一导向槽 20分处在轴线 ( 两侧的部分相互连通。 转子本体 6的圆柱体在靠近传动轴 14根部的地方和靠近定心轴 15根部的地方各有一垂直于转子本体 6的轴线 ( 且与第二导向槽 21平行的侧翼导流孔 16, 将第二导向槽 21分处在轴线 0两侧的部分相互连通。转子本体 6的上端面 22加工有沉孔 25, 永磁元件
7安装在沉孔 25内。 永磁元件 7可以选用圆柱形磁钢标准件, 装配方式可 以是将其以过盈配合方式压入沉孔 25。 制作转子 6的材料, 应根据工作介 质的性质、 工况参数以及其它因素确定, 例如使用不锈钢、 铜合金等材料, 本例中选用不锈钢。 The rotor is composed of a rotor body 6, a first combined slide 8, a second combined slide 9, and a permanent magnet element 7. The middle portion of the rotor body 6 is a cylinder machined with a cross-shaped guide groove. The upper end of the cylinder body is coaxially machined with a transmission shaft 14, and the lower end of the cylinder body is coaxially machined with a centering shaft 15. The radius of the rotor body 6 is equal to the radius r of the quarter arc surface CD, that is, the height z of the rotor body 6 is equal to the height of the casing 1, that is, the cross-shaped guide groove on the rotor body 6 is A guiding groove 20 and a second guiding groove 21 are both centrally symmetrical, and the guiding surfaces are parallel to the axis 0 of the rotor body 6. The two wings of each of the guide grooves are cut into the rotor body 6 at a constant depth in the radial direction of the rotor body 6, and the cut-in sections are simultaneously penetrated in the axial direction of the rotor body 6. The middle portion of the second guide groove 21 is a rectangular hole that penetrates the second guide groove 21 in the radial direction of the rotor body 6. The first guiding groove 20 is cut into the rotor body 6 by the upper end surface 22 and the lower end surface 23 of the rotor body 6 in the axial direction of the rotor body 6, respectively, and the cutting portion penetrates in the radial direction of the rotor body 6 and is respectively driven. The root of the shaft 14 and the centering shaft 15 passes between the central rectangular hole of the second guide groove 21. The middle portion of the cylindrical body of the rotor body 6 has an intermediate flow guiding hole 17 perpendicular to the axis of the rotor body 6 (and parallel to the first guiding groove 20, and the first guiding groove 20 is divided at the axis (the portions on both sides communicate with each other. The cylinder of the body 6 has a side guide hole 16 perpendicular to the axis of the rotor body 6 at a position close to the root of the transmission shaft 14 and near the root of the centering shaft 15 (the second guide groove 21 is parallel to the second guide groove 21, and the second The guide grooves 21 are connected to each other at portions on both sides of the axis 0. The upper end surface 22 of the rotor body 6 is machined with a counterbore 25, a permanent magnet element 7 is installed in the counterbore 25. The permanent magnet element 7 may be a cylindrical magnetic steel standard member, which may be assembled by pressing it into the counterbore 25 in an interference fit manner. The material of the rotor 6 should be determined according to the nature of the working medium, working parameters and other factors, such as stainless steel, copper alloy, etc., stainless steel is used in this example.
第一组合滑板 8由两块形状和尺寸完全相同的槽形滑板 33和两个第一 弹性元件 27组合而成。槽形滑板 33的顶部 26为半径小于 的圆弧面或设 计成其它形状的弧面, 在两只槽腿的底部靠近边缘处各加工有一第一导流 孔 18。 为了安装第一弹性元件 27, 可在槽形滑板 33两只槽腿的底部边缘 处各加工一容孔。 在工作状态下, 两块槽形滑板 33的槽腿相互正对, 两个 第一弹性元件 27分别位于两对槽腿之间, 使两块槽形滑板 33产生相互推 力。第二组合滑板 9由两块形状和尺寸完全相同的 T形滑板 34和一个第二 弹性元件 29组合而成。 T形滑板 34的顶部 28为半径小于 A的圆弧面或设 计成其它形状的弧面,在 T形滑板 34底部靠近边缘处加工有一第二导流孔 19。 为了安装第二弹性元件 29, 可在 T形滑板 34底部边缘处加工一容孔。 在工作状态下, 两块 T形滑板 34的底部相互正对, 第二弹性元件 29位于 两块 T形滑板 34的底部之间, 使两块 T形滑板 34产生相互推力。 槽形滑 板 33的厚度应与第一导向槽 20的宽度相等, T形滑板 34的厚度应与第二 导向槽 21的宽度相等。 槽形滑板 33的高度 ^和 T形滑板 34的高度 /¾均 应等于转子本体 6的高度 h, 即 = h2 = h。 第一组合滑板 8以滑动配合方 式安装在转子本体 6的第一导向槽 20内, 第二组合滑板 9以滑动配合方式 安装在转子本体 6的第二导向槽 21 内。 槽形滑板 33的长度 、 T形滑板 34的长度 2与四分之一圆弧面 AB的半径 R和四分之一圆弧面 CD的半径
r之间满足以下关系: The first combination slide plate 8 is composed of two groove-shaped slide plates 33 of the same shape and size and two first elastic members 27. The top portion 26 of the grooved slide plate 33 is a circular arc surface having a smaller radius or a curved surface designed to have other shapes, and a first flow guiding hole 18 is formed at the bottom of the two groove legs near the edge. In order to mount the first elastic member 27, a hole can be formed in each of the bottom edges of the two groove legs of the grooved slide plate 33. In the working state, the groove legs of the two grooved slide plates 33 are opposite to each other, and the two first elastic members 27 are respectively located between the pair of groove legs, so that the two groove-shaped slide plates 33 generate mutual thrust. The second combination slide 9 is composed of two T-shaped slide plates 34 of the same shape and size and a second elastic member 29. The top portion 28 of the T-shaped slide plate 34 is a circular arc surface having a radius smaller than A or a curved surface designed to have other shapes, and a second flow guiding hole 19 is formed near the edge of the bottom of the T-shaped slide plate 34. To mount the second resilient member 29, a bore can be formed at the bottom edge of the T-shaped slider 34. In the working state, the bottoms of the two T-shaped slide plates 34 are opposite each other, and the second elastic member 29 is located between the bottoms of the two T-shaped slide plates 34, so that the two T-shaped slide plates 34 generate mutual thrust. The thickness of the grooved slide 33 should be equal to the width of the first guide groove 20, and the thickness of the T-shaped slide 34 should be equal to the width of the second guide groove 21. The height of the slotted slide 33 and the height of the T-shaped slide 34/3 should be equal to the height h of the rotor body 6, i.e., = h 2 = h. The first combination slide plate 8 is mounted in a first guide groove 20 of the rotor body 6 in a sliding fit manner, and the second combination slide plate 9 is mounted in the second guide groove 21 of the rotor body 6 in a sliding fit manner. The length of the slotted slide 33, the length 2 of the T-shaped slide 34 and the radius R of the quarter arc surface AB and the radius of the quarter arc surface CD The following relationship is satisfied between r:
2 ≤R+ r, 2 ≤ R+ r,
2I^ R+ r。 2I^ R+ r.
制作槽形滑板 33和 T形滑板 34的材料, 应与转子本体 6和壳体 1统 一考虑, 槽形滑板 33和 T形滑板 34与壳体 1内壁相配侧的材料硬度小于 壳体 1的材料硬度。 制作第一弹性元件 27和第二弹性元件 29的材料, 主 要根据工作介质的性质、 工况参数、 工作寿命等因素确定, 本例中使用弹 簧钢。 The material of the grooved slide plate 33 and the T-shaped slide plate 34 should be considered in consideration with the rotor body 6 and the casing 1. The material hardness of the side of the grooved slide plate 33 and the T-shaped slide plate 34 on the side of the inner wall of the casing 1 is smaller than that of the casing 1. hardness. The materials of the first elastic member 27 and the second elastic member 29 are mainly determined according to factors such as the nature of the working medium, operating parameters, working life, and the like, and spring steel is used in this example.
转子通过转子本体 6上的传动轴 14和定心轴 15分别与上盖板 10的第 一轴承孔 12和下盖板 11的第二轴承孔 13旋转配合, 在密封腔内转动。 同 时, 转子通过转子本体 6的圆柱面 24与异型面内腔的四分之一圆弧面 CD 的滑动配合, 转子本体 6的上端面 22与上盖板 10的滑动配合, 转子本体 6 的下端面 23与下盖板 11 的滑动配合, 第一组合滑板 8和第二组合滑板 9 与异型面内腔的四分之一圆弧面 AB的滑动配合,以及第一组合滑板 8与第 一导向槽 20的滑动配合和第二组合滑板 9与第二导向槽 21的滑动配合, 构成防内泄动密封***。 The rotor is rotatably engaged with the first bearing hole 12 of the upper cover 10 and the second bearing hole 13 of the lower cover 11 through the drive shaft 14 and the centering shaft 15 of the rotor body 6, respectively, to rotate within the sealed cavity. At the same time, the rotor is fitted through the sliding surface of the cylindrical surface 24 of the rotor body 6 and the quarter arc surface CD of the contoured surface cavity, and the upper end surface 22 of the rotor body 6 is slidably engaged with the upper cover 10, and the lower portion of the rotor body 6 The sliding engagement of the end surface 23 with the lower cover 11 , the sliding engagement of the first combined slide 8 and the second combined slide 9 with the quarter arc surface AB of the profiled inner cavity, and the first combined slide 8 and the first guide The sliding fit of the slot 20 and the sliding engagement of the second combination slide 9 with the second guide slot 21 constitute an internal leakage prevention seal system.
当第二组合滑板 9的两端分别处在四分之一圆弧面 AB区域内和四分之 一圆弧面 CD区域内时, 处在四分之一圆弧面 CD区域内的 T形滑板 34的 第二导流孔 19应与转子本体 6的中间导流孔 17处于同轴位置, 将第一导 向槽 20 的两侧连通。 当第一组合滑板 8 的两端分别处在四分之一圆弧面 AB区域内和四分之一圆弧面 CD区域内时, 处在四分之一圆弧面 CD区域 内的槽形滑板 33的第一导流孔 18应与转子本体 6的侧翼导流孔 16处于同 轴位置, 将第二导向槽 21的两侧连通。
本装置的组装程序: When the two ends of the second combined slide 9 are respectively in the area of the quarter arc surface AB and the area of the quarter arc surface CD, the T shape in the CD area of the quarter arc surface The second air guiding hole 19 of the sliding plate 34 should be in a coaxial position with the intermediate flow guiding hole 17 of the rotor body 6, and the two sides of the first guiding groove 20 are communicated. When both ends of the first combined slide plate 8 are respectively located in the area of the quarter arc surface AB and the area of the quarter arc surface CD, the groove shape in the area of the quarter arc surface CD The first air guiding hole 18 of the sliding plate 33 should be in a coaxial position with the side air guiding hole 16 of the rotor body 6, and the two sides of the second guiding groove 21 are communicated. Assembly procedure of the device:
一、 将两块槽形滑板 33对插到第一导向槽 20内, 对插前, 先在两块 槽形滑板 33之间装入第一弹性元件 27。 两块槽形滑板 33和第一弹性元件 27组装在一起, 构成第一组合滑板 8。 然后, 将两块 T形滑板 34对插到第 二导向槽 21内。对插前, 先在两块之间装入第二弹性元件 29。两块 T形滑 板 34和第二弹性元件 29组装在一起, 构成第二组合滑板 9。第一组合滑板 8和第二组合滑板 9与转子本体 6的组合体, 构成转子。 1. Insert the two grooved slide plates 33 into the first guide groove 20, and insert the first elastic member 27 between the two grooved slide plates 33 before the insertion. The two grooved slide plates 33 and the first elastic member 27 are assembled to constitute the first combined slide plate 8. Then, the two T-shaped slide plates 34 are inserted into the second guide grooves 21. Before the insertion, the second elastic member 29 is first inserted between the two blocks. Two T-shaped slides 34 and a second elastic member 29 are assembled to form a second combined slide 9. The combination of the first combined slide plate 8 and the second combined slide plate 9 and the rotor body 6 constitutes a rotor.
二、 将转子***壳体 1的内腔, 使转子本体 6的圆柱面 24与异型面内 腔的四分之一圆弧面 CD配合, 然后使转子本体 6上的传动轴 14和定心轴 15分别与上盖板 10的第一轴承孔 12和下盖板 11的第二轴承孔 13配合, 用螺钉把上盖板 10和下盖板 11分别固定在壳体 1的上端面 30和下端面 31 上。 2. Inserting the rotor into the inner cavity of the housing 1 to match the cylindrical surface 24 of the rotor body 6 with the quarter arc surface CD of the profiled cavity, and then the drive shaft 14 and the centering shaft on the rotor body 6 15 is respectively engaged with the first bearing hole 12 of the upper cover 10 and the second bearing hole 13 of the lower cover 11, and the upper cover 10 and the lower cover 11 are respectively fixed to the upper end surface 30 and the lower side of the housing 1 by screws On the end face 31.
异型腔原动机工作时, 进口 2和出口 3之间流体的压力差驱动转子转 动, 传动轴 9将动力向外输出。 When the heterogeneous prime mover is working, the pressure difference between the fluid between the inlet 2 and the outlet 3 drives the rotor to rotate, and the drive shaft 9 outputs the power to the outside.
当进口 2 —侧的流体压力高于出口 3 —侧的流体压力时, 转子按 A→B→C→D方向转动,异型面内腔的第二过渡弧面 BC推动第一组合滑板 8和第二组组合滑板 9交叉滑动。当出口 3—侧的流体压力高于进口 2—侧 的流体压力时, 转子按 B→A→D→C方向转动, 异型面内腔的第一过渡弧 面 DA推动第一组合滑板 8和第二组组合滑板 9交叉滑动。 不论转子按哪 一方向转动, 每转一周, 在密封腔内的 AB空间连续形成 4个标准容积 。, 使等量流体流过密封腔。 永磁元件 7向密封腔外发送转子转动周数 N的信 号。
本装置的工作原理: When the fluid pressure on the side of the inlet 2 is higher than the fluid pressure on the side of the outlet 3, the rotor rotates in the direction of A→B→C→D, and the second transitional arc surface BC of the inner cavity of the profiled surface pushes the first combined slide 8 and the first The two sets of combined slides 9 are cross-sliding. When the fluid pressure on the outlet 3 side is higher than the fluid pressure on the inlet 2 side, the rotor rotates in the direction of B→A→D→C, and the first transitional arc surface DA of the profiled cavity pushes the first combination slide 8 and the first The two sets of combined slides 9 are cross-sliding. Regardless of which direction the rotor rotates, each time one revolution, four standard volumes are continuously formed in the AB space in the sealed chamber. , allowing an equal amount of fluid to flow through the sealed chamber. The permanent magnet element 7 transmits a signal of the number N of revolutions of the rotor to the outside of the sealed chamber. The working principle of this device:
一、 能量转换: 由图 1 可以看到, 在转子的任何旋转角度下, 都会有 一块槽形滑板 33或 T形滑板 34处在异型面内腔的 AB区域内, 并伸出转 子本体 6与 1/4圆弧面 AB接触。 设进口 2—侧的流体压力为 gin, 出口 3 一侧的流体压力为 。ut, 则压力差 gm- 。ut通过 AB区域内的槽形滑板 33或 T形滑板 34对转子的轴线 ( 形成转动力矩 M0, 1. Energy Conversion: As can be seen from Figure 1, at any angle of rotation of the rotor, there will be a slotted slide 33 or T-shaped slide 34 in the AB area of the profiled cavity and extending out of the rotor body 6 1/4 arc surface AB contact. Let the fluid pressure on the side of the inlet 2 be g in and the fluid pressure on the side of the outlet 3 be. Ut , then the pressure difference g m - . Ut passes the slotted slide 33 or the T-shaped slide 34 in the AB region to the axis of the rotor (forming a rotational moment M 0 ,
M H(qm - qo (R - r)(R + r) ( 3 ) M H(q m - q o (R - r)(R + r) ( 3 )
0 2 ° 只要 M。大于转子受到的阻抗力偶, 便会驱动转子转动 (槽形滑板 33和 T 形滑板 34交替进入 AB区域), 由传动轴 14向外输出旋转动力。 0 2 ° as long as M. More than the resistance couple received by the rotor, the rotor is driven to rotate (the slotted slide 33 and the T-shaped slide 34 alternately enter the AB area), and the rotary shaft is outputted outward by the drive shaft 14.
二、 流量计量: 因为第一组合滑板 8与第二组合滑板 9是垂直交叉的, 当其中一组组合滑板(例如第一组合滑板 8 )处在 AC位置时, 另一组组合 滑板(第二组合滑板 9) 则刚好处于 BD位置, 如图 1 (a)所示。 此时, 密 封腔内由两组组合滑板与异型柱面内腔的四分之一圆弧面 AB 所围成的空 间区域构成一个标准容积 Q。 转子每转过一周, 有 4个标准容积 Q形成, 同时有 4个标准容积 (4 Q) 的流体由出口 3排出。 构成标准容积的 AB空 间区域是异型腔原动机的计量空间, 也称为计量室。 异型腔原动机工作过 程中通过腔体的流体体积流量 , 按以下公式计算: Second, the flow metering: because the first combination slide 8 and the second combined slide 9 are perpendicularly intersected, when one set of combined slides (for example, the first combined slide 8) is in the AC position, another set of combined slides (second The combination slide 9) is just in the BD position, as shown in Figure 1 (a). At this time, a space area surrounded by two sets of combined slides and a quarter arc surface AB of the shaped cylindrical cavity in the sealed cavity constitutes a standard volume Q. Four revolutions of Q are formed per revolution of the rotor, while four standard volumes (4 Q ) of fluid are discharged from outlet 3. The AB space region constituting the standard volume is the metering space of the heterogeneous cavity prime mover, also referred to as the metering chamber. The fluid volume flow through the cavity during the operation of the heterogeneous prime mover is calculated according to the following formula:
V= NVQ (4)。 V = NV Q (4).
三、 组合滑板的运动控制: 考査异型腔原动机工作过程中组合滑板的 运动, 设第一组合滑板 8的初始位置为 AC, 第二组合滑板 9的初始位置为 BD, 参看图 1 (a)。 此时, 第一组合滑板 8的左端(上端)位于 1/4圆弧面 AB与第一过渡弧面 DA的交界处 A, 它的右端(下端)位于 1/4圆弧面 CD
与第二过渡弧面 BC的交界处 C; 第二组合滑板 9的右端 (上端) 位于 1/4 圆弧面 AB与第二过渡弧面 BC的交界处 B, 它的左端 (下端) 位于 1/4圆 弧面 CD与第一过渡弧面 DA的交界处 D。 当转子按 A→B→C→D方向转 动时, 两块组合滑板随之转动。 Third, the motion control of the combined skateboard: To examine the movement of the combined skateboard during the working process of the abnormal cavity prime mover, the initial position of the first combined slide 8 is AC, and the initial position of the second combined slide 9 is BD, see Fig. 1 (a) . At this time, the left end (upper end) of the first combination slide plate 8 is located at the boundary A of the 1/4 arc surface AB and the first transition arc surface DA, and the right end (lower end) thereof is located at the 1/4 arc surface CD The boundary C with the second transitional arc surface BC; the right end (upper end) of the second combined slide plate 9 is located at the boundary B of the 1/4 arc surface AB and the second transition arc surface BC, and its left end (lower end) is located at 1 /4 The intersection of the circular arc surface CD and the first transitional arc surface DA. When the rotor rotates in the direction of A→B→C→D, the two combined slides rotate accordingly.
第一组合滑板 8在由 AC位置转到 BD位置, 即旋转 90°通过计量室的 过程中, 其上下两端分别与内腔的 1/4圆弧面 AB和 1/4圆弧面 CD保持弹 性接触, 因此第一组合滑板 8的长度不变并相对于转子本体 6保持静止。 同时, 第二组合滑板 9的右端沿第二过渡弧面 BC由 B向 C转动, 其左端 则沿第一过渡弧面 DA由 D向 A转动。 随着第二组合滑板 9的右端沿第二 过渡弧面 BC由 B转到 C, 第二过渡弧面 B推动第二组合滑板 9在转子本 体 6的第二导向槽 21内滑移, 同时第二组合滑板 9的左端沿第一过渡弧面 DA滑动, 直至到达端点 A, 此时第二组合滑板 9的右端到达第二过渡弧面 BC的端点 C。 当第二组合滑板 9转到 AC位置而第一组合滑板 8转到 BD 位置时, 两块组合滑板交换动作, 重复前面 90°的旋转过程。 以后, 组合滑 板的运动周期性地重复以上动作, 参看图 1。 The first combined slide plate 8 is moved to the BD position from the AC position, that is, during the rotation through 90° through the metering chamber, the upper and lower ends thereof are respectively maintained with the 1/4 arc surface AB and the 1/4 arc surface CD of the inner cavity. The elastic contact, so that the length of the first combined slide 8 does not change and remains stationary with respect to the rotor body 6. At the same time, the right end of the second combination slide 9 is rotated by B to C along the second transitional arc surface BC, and the left end thereof is rotated by D to A along the first transitional arc surface DA. As the right end of the second combined slide 9 is turned from B to C along the second transitional arc surface BC, the second transitional curved surface B pushes the second combined slide 9 to slide in the second guide groove 21 of the rotor body 6, and at the same time The left end of the second combination slide 9 slides along the first transition arc surface DA until reaching the end point A, at which time the right end of the second combination slide 9 reaches the end point C of the second transition arc surface BC. When the second combination slide 9 is turned to the AC position and the first combined slide 8 is turned to the BD position, the two combined slides exchange actions, repeating the previous 90° rotation process. Later, the motion of the combined slider periodically repeats the above actions, see Figure 1.
四、转子内部的导流机构:在第二组合滑板 9由 AC位置转到 BD位置 而第一组合滑板 8由 BD位置转到 AC位置并在第一导向槽 20内向左滑动 的过程中, 第二组合滑板 9下部的 T形滑板 34上的第二导流孔 19处于与 转子本体上的中间导流孔 17同轴的位置, 将第一组合滑板 8的两块槽形滑 板 34之间的左右两个空腔部分连通。 由于第一组合滑板 9向左滑动, 左侧 空腔的体积连续增大形成负压而右侧空腔的体积连续减小形成正压, 因此 右侧空腔内的流体通过第二导流孔 19和中间导流孔 17流入左侧空腔, 参
看图 2、 图 4、 图 5、 图 6。 第二导流孔 19和中间导流孔 17由此起到了释 放转子内部空腔压力从而保证转子能够顺利转动的作用, 同时, 第二导流 孔 19和中间导流孔 17导流孔对组合滑板的滑动乃至转子的转动也产生一 定的阻尼作用。 4. The flow guiding mechanism inside the rotor: in the process that the second combined sliding plate 9 is turned from the AC position to the BD position and the first combined sliding plate 8 is turned from the BD position to the AC position and slides to the left in the first guiding groove 20, The second air guiding hole 19 on the lower T-shaped sliding plate 34 of the second combined sliding plate 9 is at a position coaxial with the intermediate guiding hole 17 on the rotor body, and between the two grooved sliding plates 34 of the first combined sliding plate 8. The left and right cavity portions are in communication. Since the first combined slide 9 slides to the left, the volume of the left cavity continuously increases to form a negative pressure and the volume of the right cavity continuously decreases to form a positive pressure, so the fluid in the right cavity passes through the second guide hole. 19 and the intermediate flow guiding hole 17 flow into the left cavity, the reference See Figure 2, Figure 4, Figure 5, Figure 6. The second air guiding hole 19 and the intermediate air guiding hole 17 thus play the role of releasing the internal cavity pressure of the rotor to ensure the smooth rotation of the rotor, and at the same time, the second guiding hole 19 and the intermediate guiding hole 17 are combined with the guiding hole pair. The sliding of the sliding plate and even the rotation of the rotor also exert a certain damping effect.
类似地, 在第一组合滑板 8由 AC位置转到 BD位置而第二组合滑板 9 由 BD位置转到 AC位置并在第二导向槽 21内向左滑动的过程中, 第一组 合滑板 8下部的槽形滑板 33上的第一导流孔 18处于与转子本体上的侧翼 导流孔 16同轴的位置, 将第二组合滑板 9的两块 T形滑板 34之间的左右 两个空腔部分连通。 由于右侧空腔的体积连续增大而左侧空腔的体积连续 减小, 因此右侧空腔内流体通过第一导流孔 18和侧翼导流孔 16流入左侧 空腔。 Similarly, in the process of the first combination slide 8 being turned from the AC position to the BD position and the second combined slide 9 being turned from the BD position to the AC position and sliding to the left in the second guide groove 21, the lower portion of the first combination slide 8 The first flow guiding hole 18 on the grooved slide plate 33 is at a position coaxial with the side wing flow guiding hole 16 on the rotor body, and the left and right cavity portions between the two T-shaped sliding plates 34 of the second combined sliding plate 9 Connected. Since the volume of the right side cavity continuously increases and the volume of the left side cavity continuously decreases, the fluid in the right side cavity flows into the left side cavity through the first flow guiding hole 18 and the side wing guiding hole 16.
五、 对流体内泄的控制: 当密封腔中转子与密封腔内壁以及转子自身 各运动件之间的所有滑动配合的间隙都足够小时, 转子在密封腔内即形成 一个动密封机构, 使流体不能以间隙渗漏的方式由进口 2流到出口 3。 V. Control of fluid leakage: When the clearance between the rotor and the inner wall of the sealing chamber and the moving parts of the rotor itself is small enough, the rotor forms a dynamic sealing mechanism in the sealing cavity, so that the fluid cannot Flow from the inlet 2 to the outlet 3 in a leaky manner.
六、 转子防卡死: 当流体中含有的固体颗粒进入第一组合滑板 8或第二组 合滑板 9的端部区域而产生卡滞作用时, 弹性元件 27和弹性元件 29可以 发生压缩变形, 使组合滑板的长度减小, 因而转子能够继续转动, 不被卡 死。
6. Anti-seize of the rotor: When the solid particles contained in the fluid enter the end region of the first combined slide plate 8 or the second combined slide plate 9 to cause a jam, the elastic member 27 and the elastic member 29 can be compressed and deformed. The length of the combination slide is reduced so that the rotor can continue to rotate without being stuck.
Claims
权 利 要 求 Rights request
1.一种异型腔原动机, 包括带有异型面内腔、 进口 (2)、 出口 (3) 的 壳体 (1) 与安装在壳体 (1) 两端面上的上盖板 (10) 和下盖板 (11), 壳 体 (1) 与上盖板 (10)、 下盖板 (11) 构成的密封腔, 在密封腔内安装有 转子, 其特征在于: 转子包括转子本体 (6)、 第一组合滑板 (8)、 第二组 合滑板 (9), 转子本体 (6) 为圆柱体, 转子本体 (6) 径向开有十字交叉 的第一导向槽 (20) 和第二导向槽 (21), 第一组合滑板 (8) 和第二组合 滑板 (9) 分别可滑动安装在第一导向槽 (20) 和第二导向槽 (21) 中, 第 一组合滑板 (8) 两端和第二组合滑板 (9) 的两端同时与异性面内腔贴合, 第一组合滑板 (8)、 第二组合滑板 (9) 和转子本体 (6) 的高度与异性面 内腔的高度一致。 A hetero-cavity prime mover comprising a housing (1) having a profiled cavity, an inlet (2), an outlet (3) and an upper cover (10) mounted on both end faces of the housing (1) And a lower cover plate (11), a sealing cavity formed by the casing (1) and the upper cover plate (10) and the lower cover plate (11), and a rotor is mounted in the sealing cavity, wherein: the rotor comprises a rotor body (6) ), a first combined slide plate (8), a second combined slide plate (9), the rotor body (6) is a cylinder, and the rotor body (6) has a first guide groove (20) and a second guide that are radially intersected with a cross The groove (21), the first combined slide plate (8) and the second combined slide plate (9) are slidably mounted in the first guiding groove (20) and the second guiding groove (21), respectively, and the first combined sliding plate (8) Both ends of the end and the second combined slide plate (9) are simultaneously fitted to the inner cavity of the opposite side, and the heights of the first combined slide plate (8), the second combined slide plate (9) and the rotor body (6) and the inner cavity of the opposite face are Highly consistent.
2.根据权利要求 1所述的异型腔原动机, 其特征在于: 壳体 (1) 的异 型面内腔为平面对称的封闭柱面, 该封闭柱面由四分之一圆弧面 AB、第二 过渡弧面 BC、 四分之一圆弧面 CD和第一过渡弧面 DA依次衔接构成, 四 分之一圆弧面 AB与四分之一圆弧面 CD共轴, 四分之一圆弧面 AB的半径 R大于四分之一圆弧面 CD的半径 r,第一过渡弧面 DA与第二过渡弧面 BC 相互对称, 四个弧面的衔接处平滑过渡。 The hetero-cavity prime mover according to claim 1, wherein: the profiled inner cavity of the casing (1) is a plane-symmetrical closed cylindrical surface, and the closed cylindrical surface is formed by a quarter-arc surface AB, The second transition arc surface BC, the quarter arc surface CD and the first transition arc surface DA are sequentially connected, and the quarter arc surface AB is coaxial with the quarter arc surface CD, one quarter The radius R of the arc surface AB is greater than the radius r of the quarter arc surface CD, the first transition arc surface DA and the second transition arc surface BC are symmetrical with each other, and the joints of the four arc surfaces are smoothly transitioned.
3.根据权利要求 2所述的异型腔原动机, 其特征在于: 过四分之一圆 弧面 AB和四分之一圆弧面 CD的公共轴线 ( 且垂直于公共轴线 ( 的任意 直线被第一过渡弧面 DA和第二过渡弧面 BC所截线段 ce的长度 Lce大于 或等于四分之一圆弧面 AB与四分之一圆弧面 CD的半径之和。 3. The hetero-cavity prime mover according to claim 2, characterized by: a common axis of more than a quarter arc surface AB and a quarter arc surface CD (and perpendicular to the common axis (any straight line is The length L ce of the section ce of the first transitional arc surface DA and the second transitional arc surface BC is greater than or equal to the sum of the radii of the quarter arc surface AB and the quarter arc surface CD.
4.根据权利要求 2所述的异型腔原动机, 其特征在于: 壳体 (1) 上的
进口 (2)和出口 (3 )分别开设在第一过渡弧面 DA和第二过渡弧面 BC的 区域内; 进口 (2) 处设置进口导流槽 (4), 进口导流槽沿异型面内壁环向 开设, 进口导流槽两端起于端点 A, 止于端点 D。 4. The heterogeneous cavity prime mover according to claim 2, characterized by: on the housing (1) The inlet (2) and the outlet (3) are respectively opened in the region of the first transitional arc surface DA and the second transitional arc surface BC; the inlet (2) is provided with an inlet guide channel (4), and the inlet guide channel is along the profiled surface The inner wall is circumferentially opened, and both ends of the inlet guide groove start at the end point A and terminate at the end point D.
5.根据权利要求 2或 4所述的异型腔原动机, 其特征在于: 出口 (3 ) 设置出口导流槽 (5 ), 出口导流槽沿异型面内壁环向开设, 出口导流槽两 端起于端点 B, 止于端点 。 The hetero-cavity prime mover according to claim 2 or 4, characterized in that: the outlet (3) is provided with an outlet guide groove (5), the outlet guide groove is opened along the inner wall of the profiled surface, and the outlet guide groove is two Ends at endpoint B and ends at endpoint.
6.根据权利要求 2或 3或 4所述的异型腔原动机, 其特征在于: 转子 本体 (6) 与四分之一圆弧面 CD共轴, 转子本体 (6) 的半径 与四分之 一圆弧面 CD的半径 r相等。 6. The hetero-cavity prime mover according to claim 2 or 3 or 4, wherein: the rotor body (6) is coaxial with the quarter arc surface CD, and the radius of the rotor body (6) is four quarters The radius r of an arc surface CD is equal.
7.根据权利要求 1或 2或 3或 4所述的异型腔原动机, 其特征在于: 第一导向槽 (20 ) 和第二导向槽 (21 ) 均为中心对称结构, 每个导向槽的 两翼均沿转子本体 (6) 的径向切入转子本体 (6) —定深度, 切入段同时 沿转子本体 (6) 的轴线方向贯通; 第二导向槽 (21 ) 的中部是一个沿转子 本体 (6) 径向贯通的矩形孔, 第一导向槽 (20) 中部则由转子本体 (6) 的上端面 (22) 和下端面 (23 ) 分别沿转子本体 (6) 的轴线方向切入转子 本体 (6), 切入部分同时沿转子本体 (6) 的径向贯通, 两导向槽相交处相 互隔开。 The hetero-cavity prime mover according to claim 1 or 2 or 3 or 4, wherein: the first guiding groove (20) and the second guiding groove (21) are both central symmetrical structures, and each guiding groove Both wings are cut into the rotor body (6) in the radial direction of the rotor body (6) to a certain depth, and the cutting section penetrates in the axial direction of the rotor body (6); the middle of the second guiding groove (21) is along the rotor body ( 6) a rectangular hole that penetrates radially, and the middle portion of the first guide groove (20) is cut into the rotor body along the axial direction of the rotor body (6) by the upper end surface (22) and the lower end surface (23) of the rotor body (6), respectively. 6), the cut-in portion is simultaneously penetrated in the radial direction of the rotor body (6), and the intersections of the two guide grooves are spaced apart from each other.
8.根据权利要求 7所述的异型腔原动机, 其特征在于: 第一组合滑板 ( 8 ) 包括两块一侧边中心开槽的槽形滑板 (33 ), 开槽侧的两端形成两个 槽腿, 两块槽形滑板结构相同, 槽腿相互正对, 槽腿与第一导向槽的中部 相配; 第二组合滑板包括两块结构相同的 T形滑板 (34), T形滑板 (34) 直边相互正对, T形滑板 (34) 直边与第二导向槽中部矩形孔相配。
The hetero-cavity prime mover according to claim 7, wherein: the first combined slide plate (8) comprises two groove-shaped slide plates (33) which are centrally grooved on one side, and two ends of the grooved side form two The two grooved slides have the same structure, the groove legs are opposite each other, and the groove legs are matched with the middle of the first guide groove; the second combined slide plate comprises two T-shaped slide plates (34) of the same structure, and the T-shaped slide plate ( 34) The straight sides are facing each other, and the straight edge of the T-shaped slide plate (34) matches the rectangular hole in the middle of the second guide groove.
9.根据权利要求 8所述的异型腔原动机, 其特征在于: 槽形滑板 (33 ) 的长度 与 T形滑板(34) 的长度 、 四分之一圆弧面 AB的半径 R和四 分之一圆弧面 CD的半径 r之间满足关系: 2L R+ 2L2≤R+ ra 9. The hetero-cavity prime mover according to claim 8, characterized in that: the length of the grooved slide (33) and the length of the T-shaped slide (34), the radius R of the quarter-arc surface AB and the quarter The relationship between the radius r of one of the circular arc faces CD satisfies the relationship: 2L R+ 2L 2 ≤R+ r a
10.根据权利要求 8所述的异型腔原动机, 其特征在于: 两块槽形滑板 的槽腿之间设有第一弹性元件(27), 两块 T形滑板的直边底部之间设有第 二弹性元件 (29)。 The hetero-cavity prime mover according to claim 8, wherein: the first elastic member (27) is disposed between the groove legs of the two groove-shaped slide plates, and the bottom portions of the straight sides of the two T-shaped slide plates are disposed. There is a second elastic element (29).
11.根据权利要求 8所述的异型腔原动机,其特征在于:第二导向槽 (21 ) 中部矩形孔的侧壁上有一垂直于转子本体 (6) 的轴线 ( 且与第一导向槽 The hetero-cavity prime mover according to claim 8, wherein the side wall of the central rectangular hole of the second guiding groove (21) has an axis perpendicular to the rotor body (6) (and the first guiding groove)
(20) 平行的中间导流孔 (17), 中间导流孔 (17 ) 将第一导向槽 (20) 分 处在轴线 0两侧的部分相互连通; 第一导向槽 (20) 中部上下切入段的侧 壁上各有一垂直于转子本体(6 ) 的轴线 ( 且与第二导向槽(21 )平行的侧 翼导流孔 (16), 将第二导向槽 (21 ) 分处在轴线 ( 两侧的部分相互连通; 槽形滑板(33 )在两只槽腿的底部靠近边缘处各设有一个第一导流孔(18), 第一导流孔与槽形滑板 (33 ) 外侧边的距离与转子本体半径一致, 第一导 流孔的高度与侧翼导流孔(16)相配; T形滑板(34 ) 的直边底部设有第二 导流孔(19), 第二导流孔与 T形滑板(34)外侧边的距离与转子本体半径 一致, 第二导流孔的高度与中间导流孔 (17) 相配。 (20) parallel intermediate flow guiding holes (17), intermediate guiding holes (17) communicating the portions of the first guiding groove (20) on both sides of the axis 0; the first guiding groove (20) is cut up and down in the middle The side walls of the segments each have a side guide hole (16) perpendicular to the axis of the rotor body (6) and parallel to the second guide groove (21), and the second guide groove (21) is divided into the axis (two The side portions are in communication with each other; the grooved slide plate (33) is provided with a first flow guiding hole (18) at the bottom of the two groove legs near the edge, and the first guiding hole and the outer side of the grooved sliding plate (33) The distance is the same as the rotor body radius, the height of the first air guiding hole is matched with the side guiding hole (16); the bottom of the straight side of the T-shaped sliding plate (34) is provided with the second guiding hole (19), the second guiding flow The distance between the hole and the outer side of the T-shaped slide plate (34) is the same as the radius of the rotor body, and the height of the second flow guiding hole matches the intermediate flow guiding hole (17).
12.根据权利要求 1或 2或 3或 4所述的异型腔原动机, 其特征在于: 转子本体 (6 ) 的上端面 (22) 设有沉孔 (25 ), 永磁元件 (7) 安装在沉孔 The hetero-cavity prime mover according to claim 1 or 2 or 3 or 4, characterized in that: the upper end surface (22) of the rotor body (6) is provided with a counterbore (25), and the permanent magnet element (7) is mounted In the counterbore
(25 ) 内。 (25) inside.
13.根据权利要求 12所述的异型腔原动机, 其特征在于: 上盖板 (10) 采用非铁磁材料。
13. The hetero-cavity prime mover according to claim 12, wherein: the upper cover (10) is made of a non-ferromagnetic material.
14.根据权利要求 1或 2或 3或 4所述的异型腔原动机, 其特征在于: 上盖板 (10) 和下盖板 (11) 均为平板, 上盖板 (11) 的中心加工有第一 轴承孔 (12), 下盖板 (11) 的中心加工有第二轴承孔 (13), 第一轴承孔 (12) 为通孔, 第二轴承孔 (13) 为盲孔; 转子本体 (6) 轴线处的上端同 轴加工有与第一轴承孔 (12) 配合的传动轴 (14), 下端同轴加工有与第二 轴承孔 (13) 相配的定心轴 (15)。
The hetero-cavity prime mover according to claim 1 or 2 or 3 or 4, characterized in that: the upper cover (10) and the lower cover (11) are both flat plates, and the central processing of the upper cover (11) There is a first bearing hole (12), and a center of the lower cover plate (11) is machined with a second bearing hole (13), the first bearing hole (12) is a through hole, and the second bearing hole (13) is a blind hole; The upper end of the body (6) is coaxially machined with a drive shaft (14) that cooperates with the first bearing bore (12), and the lower end is coaxially machined with a centering shaft (15) that mates with the second bearing bore (13).
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CN101624978B (en) * | 2009-08-03 | 2011-07-20 | 浙江大学 | Metering pump with special-shaped cavity |
CN101619660B (en) * | 2009-08-03 | 2011-02-02 | 浙江大学 | Special-shape cavity prime motor |
CN102678553A (en) * | 2012-05-28 | 2012-09-19 | 宁波市鄞州富春精密铸造有限公司 | Vacuum pump with special-shaped cavity |
CN102678552A (en) * | 2012-05-28 | 2012-09-19 | 宁波市鄞州富春精密铸造有限公司 | Gas compression pump with special-shaped cavity |
CN103807093B (en) * | 2014-03-03 | 2016-11-23 | 曲阜圣地沃尔电子科技有限公司 | A kind of valve plate-type hydraulic motor |
CN108591057B (en) * | 2018-05-25 | 2023-09-15 | 中国石油大学(华东) | Single-cavity asymmetric sliding vane vacuum pump |
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