High-power refrigerating and heating equipment

Abstract

The invention provides high-power refrigerating and heating equipment, and belongs to the technical field of refrigerating and heating. Comprising a power mechanism, a multi-linkage transmission mechanism, a plurality of solid elastic clamping heat regenerators and a heat-conducting medium collecting mechanism. By means of the multi-linkage transmission mechanism, one set of power mechanism can be used for driving the multiple solid elastic clamp heat regenerators suitable for operation of elastic clamp materials to conduct refrigeration or heating, then the multiple solid elastic clamp heat regenerators are gathered through the heat-conducting medium gathering mechanism, and enough heating capacity or refrigerating capacity can be obtained; in this way, the problem that materials cannot bear the heat due to the fact that the solid elastic clamping heat regenerator is designed to be too large can be solved, enough heating capacity or refrigerating capacity can be provided, and the requirements in practical application are met.

Description

Technical Field

[0001] The present invention belongs to the technical field of refrigeration and heating, and more specifically, relates to a high-power refrigeration and heating device. Background Art

[0002] Space cooling is an important guarantee for people to maintain a high quality of life in modern times. In the existing technology, compressor refrigeration is mainly used. However, there are many problems with the refrigerants used in gas compression refrigerators. The refrigerants (such as chlorine- and bromine-containing refrigerants) are manufactured and released into the environment in large quantities, causing great damage to the environment.

[0003] In recent years, a technology using solid-state spring cards for cooling and heating has emerged. Solid-state spring card cooling and heating is a new green and environmentally friendly cooling and heating technology. By loading or unloading the solid-state spring card material, it causes phase change or reverse phase change to generate heat or cold, thereby cooling or heating, and then using heat transfer fluid to export the generated heat or cold.

[0004] However, the existing solid-state spring card refrigeration equipment is basically in the theoretical and experimental stages, and the cooling heating capacity is too small to meet the needs of practical applications; and when its cooling capacity increases to a certain level (such as 1 horsepower), due to the excessive stress exerted by the power mechanism on the spring card material, the power mechanism and other components may not be able to withstand excessive loads. Summary of the invention

[0005] The purpose of the present invention is to provide a high-power refrigeration and heating device to solve the technical problem that the solid-state spring-cage refrigeration device in the prior art has a low refrigeration and heating capacity and is difficult to meet the needs in practical applications.

[0006] To achieve the above-mentioned purpose, the technical solution adopted by the present invention is: to provide a high-power refrigeration and heating equipment, including a power mechanism, a multi-linkage transmission mechanism, a plurality of solid-state spring-clip heat regenerators and a heat-conducting medium collecting mechanism, the power mechanism is used to output power; the multi-linkage transmission mechanism has a power input end and a plurality of power output ends, and the power input end is connected to the power mechanism; the plurality of solid-state spring-clip heat regenerators are respectively connected to different power output ends on the multi-linkage transmission mechanism to cool or heat under the drive of the power output end; the heat-conducting medium collecting mechanism is respectively connected to the plurality of solid-state spring-clip heat regenerators to supply heat-conducting medium to the plurality of solid-state spring-clip heat regenerators respectively, and collects the heat-conducting medium output after cooling or heating by the solid-state spring-clip heat regenerator for heat exchange.

[0007] In combination with the above technical scheme, in a possible implementation method, the multi-linkage transmission mechanism includes a rotating main shaft, a main shaft bracket and a plurality of power output joints, the rotating main shaft is connected to the power mechanism; the main shaft bracket is relatively fixed to the solid-state spring-clip heat regenerator, and is rotatably connected to the rotating main shaft to limit the rotating main shaft; the plurality of power output joints are arranged at intervals on the rotating main shaft, and are respectively connected to the corresponding solid-state spring-clip heat regenerators; wherein the portion where the main shaft bracket is connected to the power mechanism is the power input end, and the portion where the power output joint is connected to the solid-state spring-clip heat regenerator is the power output end.

[0008] In combination with the above technical solution, in a possible implementation method, the power output section includes an eccentric cam, a first bearing, a hoop and a drive rod, the eccentric cam is fixed on the rotating main shaft; the first bearing sleeve is arranged on the outer ring of the eccentric cam; the hoop is arranged outside the first bearing; one end of the drive rod is fixedly connected to the hoop, and the other end is connected to the solid spring-loaded heat regenerator.

[0009] In combination with the above technical solution, in a possible implementation method, the eccentric cam is a disc-shaped wheel structure, and an eccentric shaft hole is provided inside, an inner keyway is provided on the shaft hole, and an outer keyway is provided at the corresponding position of the rotating main shaft and each eccentric cam. The eccentric cam and the rotating main shaft are fixedly connected by a key bar clamped between the inner keyway and the outer keyway.

[0010] In combination with the above technical solution, in a possible implementation, adjacent external keyways on the rotating main shaft have a phase angle of 360 / n, where n is the number of power output nodes.

[0011] In combination with the above technical solution, in a possible implementation, the hoop includes a first half ring, a second half ring and a half ring fastener, the first half ring is fixedly connected to the drive rod; the second half ring is snap-fitted with the first half ring and surrounds the outer ring of the first bearing; the half ring fastener is respectively connected to the first half ring and the second half ring to fasten the first half ring and the second half ring to the outer ring of the first bearing; wherein the first half ring and the second half ring are provided with a receiving groove on the inner side for accommodating the outer ring of the first bearing, so that the first half ring and the second half ring can be fastened to the outer ring of the first bearing through the half ring fastener.

[0012] In combination with the above technical scheme, in a possible implementation method, the solid spring card heat regenerator includes a fixed sleeve, multiple solid spring card material plates, a pressure head, a plug structure and a medium conveying pipeline assembly, multiple solid spring card material plates are stacked in the fixed sleeve, and each solid spring card material plate includes a perforation, and multiple perforations are stacked to form a flow cavity for heat-conducting medium to pass through; the pressure head is slidably arranged at one end of the fixed sleeve and connected to the driving rod, so as to load or unload the multiple solid spring card material plates under the drive of the driving rod, so that the multiple solid spring card material plates are deformed to generate heat or cool; the plug structure is blocked at the other end of the fixed sleeve and abuts against the solid spring card material plate to limit the axial movement of the solid spring card material plate; the medium conveying pipeline assembly is connected to the flow cavity and the heat-conducting medium collecting mechanism for the input and output of the heat-conducting medium.

[0013] In combination with the above technical solution, in a possible implementation, the solid spring-clip heat regenerator further includes an outer sleeve, which is sleeved outside the fixed sleeve and has an interference fit with the fixed sleeve; The fixed sleeve comprises a first half-sleeve, a second half-sleeve and a fixed sleeve longitudinal seal. The first half-sleeve is provided with a first half-groove inside; the second half-sleeve is provided with a second half-groove inside, and is buckled with the first half-sleeve through a positioning structure, so that the first half-groove and the second half-groove form a cylinder cavity for accommodating a plurality of solid spring card material plates; the fixed sleeve longitudinal seal is provided between the first half-sleeve and the second half-sleeve, and is used to seal the joint between the first half-sleeve and the second half-sleeve; The pressure head includes a dynamic pressure head, a dynamic pressure head seal, a liquid separation head and a driving pressure head. The dynamic pressure head is slidably arranged in the cylinder cavity and abuts against the solid spring-card material plate. The dynamic pressure head is provided with a first flow hole connected to the flow cavity; the dynamic pressure head seal is arranged between the dynamic pressure head and the inner wall of the cylinder cavity for sealing; the liquid separation head dynamic pressure head is connected to one end facing away from the solid spring-card material plate, and is provided with a second flow hole and a plurality of liquid separation holes, the second flow hole is connected to the first flow hole, and one end of the plurality of liquid separation holes is connected to the second flow hole, and the other end is connected and communicated with the medium conveying pipeline assembly; the driving pressure head is slidably arranged in the outer sleeve, and is connected to the liquid separation head and the driving rod to transmit power.

[0014] In combination with the above technical solution, in a possible implementation method, a slide rail is provided in the outer sleeve, and the driving pressure head slides with the outer sleeve through the slide rail; a limiting structure is provided between the solid spring card material plate and the fixed sleeve to limit the rotation between the solid spring card material plate and the fixed sleeve.

[0015] In combination with the above technical solution, in a possible implementation method, the high-power refrigeration and heating equipment also includes an outer shell, and the outer shell cover is arranged on the outside of the multi-linkage transmission mechanism; the power mechanism is arranged on the outer shell, and one end of the rotating main shaft passes through the outer shell; the multi-linkage transmission mechanism also includes a compensating transmission assembly, and the compensating transmission assembly is arranged between the power mechanism and the rotating main shaft for compensating transmission.

[0016] The beneficial effect of the high-power cooling and heating equipment provided by the present invention is that compared with the prior art, the present invention can use a set of power mechanisms to drive multiple solid-state spring-clip heat regenerators suitable for spring-clip materials to perform cooling or heating through a multi-link transmission mechanism, and then the multiple solid-state spring-clip heat regenerators are aggregated through a heat-conducting medium collection mechanism to obtain sufficient heating or cooling capacity; this can avoid the problem of the material being unable to withstand the load due to the solid-state spring-clip heat regenerator being designed too large, and can provide sufficient heating or cooling capacity to meet the needs in practical applications. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] In order to more clearly illustrate the technical solutions in the embodiments of the present invention, the drawings required for use in the embodiments or the description of the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying creative labor.

[0018] Figure 1 A schematic diagram of the structure of a high-power refrigeration and heating device provided by an embodiment of the present invention; Figure 2 A schematic diagram of the internal structure of a high-power refrigeration and heating device provided by an embodiment of the present invention; Figure 3 A schematic diagram of a longitudinal cross-sectional structure of a high-power refrigeration and heating device provided by an embodiment of the present invention; Figure 4 A schematic cross-sectional view of a solid-state spring-loaded heat regenerator of a high-power cooling and heating device provided by an embodiment of the present invention; Figure 5 A schematic cross-sectional structure diagram of a fixed sleeve portion of a high-power refrigeration and heating device provided by another embodiment of the present invention; Figure 6 A schematic cross-sectional view of the connection between the pressure head and the driving rod of a high-power refrigeration and heating device provided by another embodiment of the present invention; Figure 7 A schematic structural diagram of a pressure head portion of a high-power refrigeration and heating device provided in yet another embodiment of the present invention; Figure 8 A schematic diagram of the partial structure of a driving rod portion of a high-power cooling and heating device provided in yet another embodiment of the present invention.

[0019] Among them, the reference numerals in the figures are as follows: 10. Solid state spring card regenerator; 11. Fixed sleeve; 111. First half sleeve; 112. Second half sleeve; 113. Protrusion; 12. solid card material plate; 121. perforation; 122. groove; 13. Pressure head; 131. Dynamic pressure head; 132. Hydraulic pressure head; 133. Driving pressure head; 134. Socket; 135. Blind hole; 14. Plug structure; 15. Outer sleeve; 20. Multi-link transmission mechanism; 21. Rotating main shaft; 22. First bearing; 23. Eccentric cam; 24, hoop; 241, first half ring; 242, second half ring; 243, half ring fastener; 25. driving rod; 251. top pressure head; 252. wear-resistant sleeve; 253. pressure sensor; 26. Spindle support; 27. Compensation transmission assembly; 30. Power mechanism; 40. Casing. DETAILED DESCRIPTION

[0020] In order to make the technical problems, technical solutions and beneficial effects to be solved by the present invention clearer, the present invention is further described in detail below in conjunction with the accompanying drawings and embodiments. It should be understood that the described embodiments are only part of the embodiments of the present application, rather than all the embodiments, and the specific embodiments described herein are only used to explain the present invention and are not intended to limit the present invention. Based on the embodiments in the present application, all other embodiments obtained by ordinary technicians in the field without making creative work are within the scope of protection of this application.

[0021] It should be further explained that the drawings and implementation modes of the present invention mainly describe the concept of the present invention. On the basis of this concept, the specific forms and settings of some connection relationships, positional relationships, power mechanisms, power supply systems, hydraulic systems and control systems may not be fully described. However, on the premise that those skilled in the art understand the concept of the present invention, those skilled in the art can implement the above-mentioned specific forms and settings in a well-known manner.

[0022] When an element is referred to as being "fixed to" or "disposed on" another element, it may be directly on the other element or indirectly on the other element. When an element is referred to as being "connected to" another element, it may be directly connected to the other element or indirectly connected to the other element.

[0023] The directional words "inside and outside" refer to the inside and outside relative to the outline of each component itself. The directions or positional relationships indicated by the terms "length", "width", "up", "down", "front", "back", "left", "right", "vertical", "horizontal", "top", "bottom", "inside" and "outside" are based on the directions or positional relationships shown in the drawings and are only for the convenience of describing the present invention and simplifying the description. They do not indicate or imply that the device or element referred to must have a specific direction, be constructed and operated in a specific direction, and therefore should not be understood as limiting the present invention.

[0024] The terms "first" and "second" are used for descriptive purposes only and should not be understood as indicating or implying relative importance or implicitly indicating the number of the indicated technical features. Therefore, the features defined as "first" and "second" may explicitly or implicitly include one or more of the features. In the description of the present invention, "multiple" means two or more, and "several" means one or more, unless otherwise clearly and specifically defined.

[0025] The high-power refrigeration and heating equipment provided by the present invention is now described.

[0026] like Figure 1 and Figure 2 As shown, the first embodiment of the present invention provides a high-power cooling and heating device, including a power mechanism 30, a multi-linkage transmission mechanism 20 and a plurality of solid-state spring-clip heat regenerators 10, the power mechanism 30 is used to output power; the multi-linkage transmission mechanism 20 has a power input end and a plurality of power output ends, and the power input end is connected to the power mechanism 30; the plurality of solid-state spring-clip heat regenerators 10 are respectively connected to different power output ends on the multi-linkage transmission mechanism 20 to cool or heat under the drive of the power output end.

[0027] Specifically, the power mechanism 30 can be a motor, a hydraulic power element, a pneumatic power element, etc.

[0028] Compared with the prior art, the high-power cooling and heating equipment provided in this embodiment can use a set of power mechanisms 30 through a multi-link transmission mechanism 20 to drive multiple solid-state spring-clip heat regenerators 10 suitable for the operation of spring-clip materials to perform cooling or heating. After that, the multiple solid-state spring-clip heat regenerators 10 are aggregated to obtain sufficient heating or cooling capacity; this can avoid the problem that the material cannot withstand the design of the solid-state spring-clip heat regenerator 10 being too large, and can provide sufficient heating or cooling capacity to meet the needs of actual applications.

[0029] like Figures 1 to 5 As shown, a specific implementation mode provided by the present invention based on the first implementation mode is as follows: To facilitate the extraction of cooling capacity or heating capacity, the high-power cooling and heating equipment also includes a heat transfer medium collection mechanism, which is respectively connected to multiple solid-state spring-clip heat regenerators 10 to supply heat transfer medium to the multiple solid-state spring-clip heat regenerators 10 respectively, and collects the heat transfer medium extracted after cooling or heating by the solid-state spring-clip heat regenerator 10 for heat exchange.

[0030] The heat transfer medium collection mechanism can be a piping system composed of components such as pipelines, busbars, distributors, pumping components, heat transfer medium storage components, etc. The heat transfer medium collection mechanism is connected to heat exchangers and other equipment that need to use heat or cold to form a cycle to achieve heat transfer and circulation.

[0031] like Figure 2 As shown, in some specific embodiments, the multi-link transmission mechanism 20 includes a rotating main shaft 21 and a plurality of power output joints, and the rotating main shaft 21 is connected to the power mechanism 30; the plurality of power output joints are arranged at intervals on the rotating main shaft 21, and are respectively connected to the corresponding solid-state spring card heat regenerators 10. In this way, the power mechanism 30 can be used to input power to the rotating main shaft 21, and the power can be respectively input to the corresponding solid-state spring card heat regenerators 10 through the plurality of power output joints; wherein, the part where the main shaft bracket 26 is connected to the power mechanism is the power input end, and the part where the power output joint is connected to the solid-state spring card heat regenerator 10 is the power output end.

[0032] The rotating main shaft 21 can be transmission connected to a power mechanism 30 at one end, or can be transmission connected to a power mechanism 30 at both ends. That is, power can be input using one power mechanism 30 or two power mechanisms 30 according to the needs of use, and the two power mechanisms 30 can be of the same power or type, or of different power or types.

[0033] In order to limit the position of the rotating spindle 21, the multi-link transmission mechanism 20 also includes a spindle bracket 26, which is fixed on a stable working surface and relatively fixed to the solid-state spring-clip heat regenerator 10, that is, the positions of the two are relatively fixed and are rotatably connected to the rotating spindle 21 to ensure the stable rotation of the rotating spindle 21, reduce the shaking of the rotating spindle 21, and avoid the situation where the power on the rotating spindle 21 cannot be transmitted to the solid-state spring-clip heat regenerator 10.

[0034] To ensure the stability of the rotating main shaft 21 when it outputs power to the power output section and generates excessive load, and to reduce friction loss, the rotating main shaft 21 is connected to the main shaft support 26 via a plurality of second bearings, and the second bearings are located between adjacent power output sections.

[0035] The rotating main shaft 21 and the power output joint can be a crank-connecting rod structure or a cam structure or other mechanisms that can meet the use requirements.

[0036] Specifically, Figure 3 As shown, in some specific embodiments, the power output section includes an eccentric cam 23, a first bearing 22, a hoop 24 and a driving rod 25. The eccentric cam 23 is fixed on the rotating main shaft 21; the first bearing 22 is sleeved on the outer ring of the eccentric cam 23; the hoop 24 is hooped outside the first bearing 22; one end of the driving rod 25 is fixedly connected to the hoop 24, and the other end is connected to the solid spring-loaded heat regenerator 10.

[0037] Through this structure, the rotational power of the rotating main shaft 21 can be converted into the pulling and compressing power on the driving rod 25, so as to input power into the solid-state spring-cage heat regenerator 10. By compressing the spring-cage material in the solid-state spring-cage heat regenerator 10, the compression phase changes and releases heat, and the unloading phase changes and recovers to absorb heat; and the friction between the eccentric cam 23 and the hoop 24 can be reduced by the first bearing 22.

[0038] The first bearing 22 and the second bearing may be bearing components such as ball bearings, spherical bearings, and air bearings, or other components that can function as bearings.

[0039] In a specific embodiment, the first bearing 22 adopts a ball bearing, which can withstand a load of 100,000 N, and the second bearing adopts a ball bearing, which can withstand a load of 46,713 N. In actual applications, the high-power refrigeration and heating equipment is applied in practice, for example, when applied to air conditioners, for air conditioners with an energy consumption of one horsepower (734 W), the energy consumption ratio COP = cooling capacity / consumed power, according to COP of 3-3.5, the cooling power of the equipment is about 2400 W. According to the characteristics of the solid-state spring card material, the pressure when the phase change occurs is 900000000 Pa, and the pressure output by a single power output section is about 45,000 N. In this embodiment, the use of a ball bearing as the first bearing can bear the pressure to the maximum extent, and the ball bearing as the second bearing can ensure the stability of the rotating main shaft 21.

[0040] Furthermore, the eccentric cam 23 is a disc-shaped wheel structure, and an eccentric shaft hole is provided inside, an inner keyway is provided on the shaft hole, and outer keyways are provided at the corresponding parts of the rotating main shaft 21 and each eccentric cam 23. The eccentric cam 23 and the rotating main shaft 21 are fixedly connected by a key bar clamped between the inner keyway and the outer keyway to ensure the stability of the structure.

[0041] The adjacent external key grooves on the rotating main shaft 21 have a phase angle of 360 / n, that is, all the external key grooves are evenly distributed on the lateral projection of the rotating main shaft 21, where n is the number of power output nodes. In this way, when the rotating main shaft 21 rotates, the torque is roughly the same, so that different solid-state spring-clip heat regenerators 10 can operate in turn, which can not only ensure the stability of the structure and power output, but also reduce the shaking of the rotating main shaft 21, never reduce mechanical wear and noise, and can also reduce friction loss and improve energy utilization.

[0042] like Figure 3 As shown, in some specific embodiments, the hoop 24 includes a first half ring 241, a second half ring 242 and a half ring fastener 243, the first half ring 241 and the driving rod 25 are fixedly connected by threaded connection, welding or integral molding; the second half ring 242 is snap-fitted with the first half ring 241 and surrounds the outer ring of the first bearing 22; the half ring fastener 243 is respectively connected to the first half ring 241 and the second half ring 242 to clamp the first half ring 241 and the second half ring 242 on the outer ring of the first bearing 22 to avoid relative movement between the hoop 24 and the outer ring of the first bearing 22, resulting in power loss and other problems; wherein, the first half ring 241 and the second half ring 242 are provided with a receiving groove for accommodating the outer ring of the first bearing 22 on the inner side, so that the first half ring 241 and the second half ring 242 are clamped on the outer ring of the first bearing 22 through the half ring fastener 243 to avoid the outer ring of the first bearing 22 and the hoop 24.

[0043] Specifically, the semi-ring fastener 243 may be a fastener such as a threaded fastener, a clip fastener or a pin fastener.

[0044] Furthermore, the eccentric cam 23 and the inner ring of the first bearing 22 are interference fit to avoid relative movement between the eccentric cam 23 and the inner ring of the first bearing 22, thereby avoiding problems such as power loss.

[0045] like Figure 3As shown, in some specific embodiments, the solid-state spring card heat regenerator 10 includes a fixed sleeve 11, a plurality of solid-state spring card material plates 12, a pressure head 13, a plug structure 14 and a medium conveying pipeline assembly, wherein the plurality of solid-state spring card material plates 12 are stacked in the fixed sleeve 11, and each solid-state spring card material plate 12 includes a perforation, and the plurality of perforations are stacked to form a flow cavity for the passage of a heat-conducting medium; the pressure head 13 is slidably disposed at one end of the fixed sleeve 11 and is connected to a driving rod 25, so as to load or unload the plurality of solid-state spring card material plates 12 driven by the driving rod 25, so that the plurality of solid-state spring card material plates 12 are deformed to generate heat or cool; the plug structure 14 is blocked at the other end of the fixed sleeve 11 and abuts against the solid-state spring card material plate 12, so as to limit the axial movement of the solid-state spring card material plate 12; the medium conveying pipeline assembly is connected to the flow cavity and the heat-conducting medium collecting mechanism, and is connected to the heat-conducting medium collecting mechanism for the input and output of the heat-conducting medium.

[0046] It should be noted that the shape of the pressure head 13 is the same as the cross-sectional shape of the solid spring card material plate. In this way, when the pressure head applies stress to the solid spring card material plate, it can avoid applying force to the protrusion at the same time, thereby increasing the energy consumption ratio of the cooling and heating device. In order to increase the strength of the loading, the pressure head can be set to high-strength ceramic or tungsten steel.

[0047] The shape and number of the perforations can be selected as required. Preferably, the perforations are polygonal, radial, circular or square.

[0048] The driving rod 25 and the pressure head 13 may be connected by a pin, but the pin connection is prone to breakage due to large bearing capacity and long-term wear. Figures 6 to 8 As shown, a pressing head 251 is provided at one end of the driving rod 25 ; the pressing head 13 is provided with a bearing groove 134 , and the pressing head 251 can be pressed against the bottom of the bearing groove 134 to transmit the pressing power to the pressing head 13 through the driving rod 25 .

[0049] Through the cooperation between the top pressure head 251 of the driving rod 25 and the bearing groove 134 on the pressure head 13, the top pressure power on the driving rod 25 can be effectively transmitted to the pressure head 13, and then the solid-state spring-clip heat regenerator 10 is loaded through the pressure head 13; since this structure does not have components such as pins, it will not break or fail under conditions of large load-bearing capacity and long-term wear, so stable power transmission can be achieved; at the same time, since the solid-state spring-clip heat regenerator 10 will have a rebound force when unloading, and the pressure head 13 and the driving rod 25 can be reset under the action of the rebound force, this form will not affect the continuous operation of the equipment.

[0050] The gap between the ram 251 and the mouth of the socket 134 has a swing margin to allow the drive rod 25 to swing during the ram power transmission process, thereby avoiding wear and splitting of the socket 134.

[0051] The top pressure head 251 is an arc-shaped convex structure, and the bottom of the receiving groove 134 is an arc-shaped concave structure that matches the top pressure head 251, thereby improving the transmission effect of the top pressure power.

[0052] like Figure 7 As shown, a blind hole 135 is provided at the bottom of the receiving groove 134. The blind hole 135 can, on the one hand, accommodate foreign matter such as iron filings and sand particles generated during operation or accidentally entering the receiving groove 134, so as to prevent these foreign matter from affecting power transmission; on the other hand, since the gas or liquid in the blind hole 135 is discharged during the pressing process, the blind hole 135 can also play the role of a negative pressure suction cup, so that a certain adhesion can be generated between the driving rod 25 and the pressure head 13, which is conducive to the coordinated movement between the two.

[0053] Grease is filled between the top pressure head 251 and the bearing groove 134. This can not only reduce the mechanical wear of the top pressure head 251 and the bearing groove 134, but also reduce the possibility of foreign matter intrusion affecting power transmission, and at the same time can enhance the effect of the negative pressure suction cup to facilitate the coordinated movement between the driving rod 25 and the pressure head 13.

[0054] There may be a plurality of blind holes 135 arranged at intervals, so that the aperture of each blind hole 135 can be small enough to avoid affecting the shape of the bottom of the socket 134, thereby ensuring stable power transmission.

[0055] like Figure 8 As shown, a wear-resistant sleeve 252 is provided on the top pressure head 251 to reduce the wear of the driving rod 25, and a pressure sensor 253 is provided between the top pressure head 251 and the wear-resistant sleeve 252 to detect the pressure between the driving rod 25 and the pressure head 13, so as to determine whether the power transmission is within the required range, and then adjust the driving rod 25 or the pressure head 13 according to the result.

[0056] In a specific embodiment, the solid spring card material plate 12 is plate-shaped. Since each plate is independently stressed, during the loading and unloading process, even if cracks appear in some solid spring card materials, only the solid spring card material plate 12 where it is located will fail, and the cracks will not spread to other solid spring card material plates, that is, it will not cause the overall failure of the solid spring card material to affect the overall work, thereby improving the service life of the solid spring card material. In addition, after the plate-shaped solid spring card material plates 12 are stacked, the damage to the material of the present application caused by the loading force will be greatly reduced during the loading process, avoiding the buckling deformation of the material.

[0057] In a specific embodiment, the thickness of the solid spring material plate is 0.01-100 mm, preferably 0.1-10 mm, and more preferably 0.15-0.3 mm.

[0058] In practical applications, in order to prevent the solid-state spring-loaded material plates 12 from being misaligned or the perforations from being unable to align to form a smooth flow cavity after being stacked during use, a limiting structure can be set between the solid-state spring-loaded material plates 12 and the fixed sleeve 11 to limit the rotation between the solid-state spring-loaded material plates 12 and the fixed sleeve 11.

[0059] The limiting structure can be a limiting structure formed by the shape between the solid spring-loaded material plate 12 and the fixed sleeve 11, or an interference fit relationship between the solid spring-loaded material plate 12 and the fixed sleeve 11, or a limiting member separately arranged in the fixed sleeve 11.

[0060] In one embodiment, the inner wall of the fixed sleeve 11 is clamped with the solid-state spring-cage material plate, that is, the inner wall shape of the fixed sleeve 11 is set to be the same as the shape of the solid-state spring-cage material plate and there is a gap or the solid-state spring-cage material plate is inscribed with the inner wall of the fixed sleeve 11. For example, the inner wall shape of the fixed sleeve 11 and the shape of the solid-state spring-cage material plate can be set to be irregular shapes, polygons, squares, etc., which contain angles and can be mutually clamped and are not easy to rotate. In the embodiment of the present invention, the inner wall shape of the fixed sleeve 11 and the shape of the solid-state spring-cage material plate are preferably hexagonal. In some embodiments, the solid-state spring-cage material plate can also be inscribed with the inner wall of the fixed sleeve 11. Preferably, the inner wall of the fixed sleeve 11 is circular or has an arc-shaped inner angle, and the solid-state spring-cage material plate is square or polygonal for easy inscription. For example, the inner wall of the fixed sleeve 11 is circular, the solid-state spring-cage material plate is square, and the square inscribes a circle; the inner wall of the fixed sleeve 11 is a rectangle with a right angle of an arc, and the solid-state spring-cage material plate is a rectangle or a hexagon.

[0061] In order to fix the position of the stacked solid-state spring-cage material plates, the fixed sleeve 11 may also be provided with a limiter to limit the movement of the solid-state spring-cage material plates. For example, a protrusion is radially provided along the inner wall of the fixed sleeve 11, and a recess is provided at the edge of the solid-state spring-cage material plate, so that the protrusion of the fixed sleeve 11 extends into the recess of the stacked solid-state spring-cage material plate to limit the position. In another embodiment, the stacked solid-state spring-cage material plates are fixed with a limiter and then fixed with the fixed sleeve 11. For example, a rod-shaped limiter is inserted into the flow cavity of the stacked solid-state spring-cage material plates, and the rod-shaped object is fixed with the fixed sleeve 11 by a fixing device.

[0062] like Figure 5As shown, in a specific embodiment, each solid spring material plate 12 includes a groove 122, and a space formed by stacking a plurality of grooves 122 is used to accommodate the protrusion 113 on the inner wall of the fixed sleeve 11. After the protrusion 113 extends into the space formed by the stacked grooves 122, the gap between the inner wall of the fixed sleeve 11 and the outer surface of the stacked solid spring material plates 12 forms an additional flow cavity for the heat transfer fluid to flow.

[0063] In practical applications, the larger the mass or volume of the solid-state spring card material, the more heat or cold it generates. Therefore, in order to maximize the absorption of the heat or cold generated by the solid-state spring card material by the medium, this embodiment also needs to ensure that the amount of the solid-state spring card material matches the heat transfer capacity. Generally, a larger flow cavity size is designed to ensure that the same mass of solid-state spring card material has a larger specific surface area or volume.

[0064] The grooves 122 of each solid-state spring card material plate correspond to the protrusions 113 on the inner wall of the fixed sleeve 11 in multiple and one-to-one correspondence. The number of protrusions 113 on the inner wall of the fixed sleeve 11 is the same as the number of the grooves 122 spaces formed after the solid-state spring card material plates 12 are stacked, and the protrusions 113 are respectively embedded in the grooves 122 spaces of the solid-state spring card material plates 12. In this embodiment, the protrusions 12 extend longitudinally along the fixed sleeve 11, and their length is greater than or equal to the length of the solid-state spring card material plates 12 after stacking. In this way, the position of the solid-state spring card material plate 12 can be fixed to a certain extent to limit its dislocation. In order to increase the cross-sectional area of ​​the flow cavity, multiple protrusions 113 and grooves 122 can be set at different angles. In order to further increase the flow cavity, a serrated structure can also be set at the edge of the groove 122 of the solid-state spring card material plate 12 to form a small micro-flow cavity while increasing the contact area between the heat transfer fluid and the solid-state spring card material, thereby increasing the heat transfer efficiency.

[0065] The grooves and protrusions can be rectangular, arc-shaped, or irregular in shape, which is not limited here. Preferably, the grooves and protrusions can be designed to be rectangular. The flow cavity formed in this way is an elongated structure. On the one hand, the contact surface with the solid spring card material is large. On the other hand, due to the obstruction of the protrusions, the flow rate of the heat transfer fluid is faster and the heat transfer efficiency is higher.

[0066] The gap between the inner wall of the fixed sleeve 11 and the edge of the groove 122 of the solid spring material plate 12 is 0.1-5 mm, preferably 0.5-1 mm. Under this size, the flow resistance can be minimized and the flow rate can be maximized.

[0067] In practical applications, if there is a gap between the inner wall of the fixed sleeve 11 and the solid spring-cage material plate, the solid spring-cage material plate may be slightly misaligned, causing the perforations on its surface to be difficult to align, affecting the flow rate of the heat transfer fluid in the flow cavity. To solve this problem, the invention provides an embodiment, in which the outer surface of the protrusion contacts the inner surface of the stacked groove, that is, only the protrusion and the groove are clamped without leaving a gap, so that a gap is left between the inner wall of the fixed sleeve 11 and the outer edge of the solid spring-cage material plate, thereby limiting the misalignment of the solid spring-cage material plate.

[0068] It should be noted that the solid-state spring card material plate will expand in the lateral direction during the loading process. Therefore, in order to ensure that there is enough space for the solid-state spring card material plate when expanding, a gap is left between the solid-state spring card material plate and the inner wall shape of the fixed sleeve 11. In some applications, a partition is set on the inner wall of the fixed sleeve 11, for example, a partition film is brushed or attached to the inner wall of the fixed sleeve 11. The partition film can be Teflon, POM, nylon, polyester or silicone. On the one hand, the film is soft and can play a role in accommodating and buffering when the solid-state spring card material plate expands. On the other hand, the film has a heat-insulating effect, which minimizes the heat loss when the medium exchanges heat through the flow cavity. In addition, when the inner wall of the fixed sleeve 11 and the solid-state spring card material plate are connected by clamping, the partition can also clamp the solid-state spring card material plate well. In practical applications, Teflon is preferably used. In order to facilitate assembly, brushing is used. After brushing the Teflon paint on the inner wall of the fixed sleeve 11, the solid-state spring card material plate is placed in the tube cavity of the fixed sleeve 11, which is easy to operate. The thickness of the solid spring card material plate is 0.01-100 mm, preferably 0.1-10 mm, and more preferably 0.15-0.3 mm.

[0069] In the embodiment of the present invention, a plurality of perforations are provided on the solid spring-cage material plate, and after the solid spring-cage material plates are stacked, the perforations are aligned to form a flow cavity. In the embodiment where the solid spring-cage material plate is connected to the inner wall of the fixed sleeve 11, the edge of the solid spring-cage material plate and the inner wall of the fixed sleeve 11 form a second flow cavity. In this embodiment, the shape and number of the perforations are not limited. Preferably, the perforations are polygonal, radial, circular or square. Figure 3 As shown, the solid-state ejection card unit also includes: a plug body, which is inserted into the flow cavity formed by the perforation, so that the plug body is connected to the inner wall of the perforation to form a plurality of micro-flow cavities.

[0070] In practical applications, in order to increase the heat transfer efficiency of the medium, the present embodiment designs the perforation to be polygonal, radial, circular or square, and inserts a plug body therein, so that the plug body and the inner wall of the perforation form a microfluidic cavity, which can greatly increase the flow rate of the medium, reduce the flow resistance, and increase the heat transfer efficiency. On the other hand, since the larger the volume (mass or volume) of the solid spring card material, the more heat or cold it generates, therefore, in order to maximize the absorption of the heat or cold generated by the solid spring card material by the medium, the present embodiment also needs to ensure that the amount of the solid spring card material matches the heat transfer capacity. Under normal circumstances, designing a larger perforation size can ensure that the solid spring card material of the same mass has a larger specific surface area or volume. The present embodiment adopts a design of large-sized perforations and plug bodies, which can reduce the flow resistance and increase the flow rate compared to a large number of small-sized perforations, so that the medium can absorb the heat generated by the solid spring card material to the maximum extent and improve the heat transfer efficiency. In an optional embodiment, the plug body can be used as a limiter to fix the position of the solid spring card material plate and limit its movement and dislocation.

[0071] like Figure 3 As shown, in some embodiments, the solid-state spring-clip heat regenerator 10 further includes an outer sleeve 15 , which is sleeved on the outside of the fixed sleeve 11 and has an interference fit with the fixed sleeve 11 .

[0072] In practical applications, the assembled fixing sleeve 11 and pressing head 13 are placed in the outer sleeve 15, which not only fixes the various mechanisms, but also facilitates the replacement of the components therein.

[0073] like Figure 3 and Figure 4 As shown, the fixed sleeve 11 includes a first half-cylinder 111, a second half-cylinder 112 and a longitudinal seal of the fixed sleeve 11. A first half-groove is provided inside the first half-cylinder 111; a second half-groove is provided inside the second half-cylinder 112, and is buckled with the first half-cylinder 111 through a positioning structure, so that the first half-groove and the second half-groove form a cylinder cavity for accommodating a plurality of solid spring material plates 12; the longitudinal seal of the fixed sleeve 11 is provided between the first half-cylinder 111 and the second half-cylinder 112, and is used to seal the joint between the first half-cylinder 111 and the second half-cylinder 112.

[0074] This form can facilitate the installation and replacement of the solid spring material plate 12, while also ensuring the strength of the entire structure. In addition, the specific heat capacity of the fixed sleeve 11 can be selected according to its material for heat preservation.

[0075] It should be noted that the fixing sleeve 11 is preferably made of a polymer material, specifically nylon, polyester, hard silicone, resin, etc., preferably polytetrafluoroethylene. During the process of stress loading of the driving mechanism 3, the solid cooling and heating plate 12 will expand laterally. The use of a polymer material can accommodate its expanded size and buffer the lateral pressure. On the other hand, the polymer material has weak thermal conductivity and can also prevent the heat loss of the heat transfer fluid.

[0076] In a specific embodiment, the positioning structure between the first half cylinder 111 and the second half cylinder 112 can be a structure in which a protrusion and a groove cooperate, or it can be a hole or groove structure positioned by fasteners or positioning pins, so as to facilitate the positioning and alignment of the first half cylinder 111 and the second half cylinder 112.

[0077] The barrel cavity can be a hollow cavity in the shape of a cylinder, a cube, a cuboid, etc., and its inner wall is in close contact with the solid cooling and heating plate 12, so that during the assembly process, the solid cooling and heating plate 12 can be placed in the fixed sleeve 11. The specific fixing method of the fixed sleeve 11 to the solid cooling and heating plate 12 can be selected as needed.

[0078] Specifically, Figure 3 As shown, in a specific embodiment, the pressure head 13 includes a dynamic pressure head 131, a dynamic pressure head seal, a liquid separation head 132 and a driving pressure head 133. The dynamic pressure head 131 is slidably arranged in the cylinder cavity and abuts against the solid spring-card material plate 12. The dynamic pressure head 131 is provided with a first flow hole connected to the flow cavity; the dynamic pressure head seal is arranged between the dynamic pressure head 131 and the inner wall of the cylinder cavity to seal and prevent medium leakage; the liquid separation head 132 is connected to the end of the dynamic pressure head 131 facing away from the solid spring-card material plate 12, and is provided with a second flow hole and a plurality of liquid separation holes, the second flow hole is connected to the first flow hole, and the plurality of liquid separation holes are connected to the second flow hole at one end, and the other end is connected and communicated with the medium conveying pipeline assembly for input and output of heat-conducting medium; the driving pressure head 133 is slidably arranged in the outer sleeve 15, and is connected to the liquid separation head 132, and is connected to the driving rod 25 to transmit power.

[0079] Preferably, the cross-sectional shape of the end of the dynamic pressure head 131 in contact with the solid-state cooling and heating plate 12 is the same, and the first flow hole is located at the center of the dynamic pressure head 131 and is coaxial with the cavity. In this embodiment, the dynamic pressure head 131 has the same cross-sectional shape as the end of the solid-state cooling and heating plate 12 that applies stress and completely covers the cross-sectional shape of the solid-state cooling and heating plate, which can ensure that the solid-state cooling and heating plate completely undergoes a phase change when stress is applied, thereby improving the efficiency of cooling and heating. In addition, setting the first flow hole at the center of the dynamic pressure head 131 can ensure that the heat transfer fluid in the cavity at all angles is uniform and flows out of the first flow hole at the same flow rate.

[0080] In order to increase the strength of the loading, the dynamic pressure head 131 can be set to high-strength tungsten steel.

[0081] Furthermore, in order to reduce friction and improve the movement accuracy of the dynamic pressure head 131, a slide rail is provided in the outer sleeve 15, and the driving pressure head 133 slides with the outer sleeve 15 through the slide rail so that the driving pressure head 133 slides along the slide rail during loading or unloading.

[0082] In some embodiments, the slide rail in the inner wall of the outer sleeve 15 that contacts the fixed sleeve 11 can be provided with a clip for fixing the fixed sleeve 11, or the slide rail may not be provided in the portion of the inner wall of the outer sleeve 15 that overlaps with the fixed sleeve 11, and only the guide rail may be provided at the port of the outer sleeve 15.

[0083] In other embodiments, in order to achieve heat exchange, that is, to transport the heat-conducting fluid that absorbs heat or cold to the heat exchange device as quickly as possible, the plug structure 14 arranged at the other end of the fixed sleeve 11 is a water-dividing plug, and the water-dividing plug is provided with a liquid hole, which is connected to the flow cavity and is connected and communicated with the medium delivery pipeline assembly for the input and output of the heat-conducting medium.

[0084] In some specific embodiments, Figure 1 As shown, the high-power cooling and heating device further includes a housing 40, which is disposed outside the solid-state spring-clip heat regenerator 10 and the multi-linkage transmission mechanism 20; the power mechanism 30 is disposed on the housing 40, and one end of the rotating main shaft 21 passes through the housing 40; the multi-linkage transmission mechanism 20 further includes a compensation transmission assembly 27, which is disposed between the power mechanism 30 and the rotating main shaft 21 for compensating transmission. The main shaft bracket 26 can be fixedly disposed on the housing 40.

[0085] The compensation transmission assembly 27 can be a transmission assembly capable of distance compensation, such as a gear transmission assembly or a chain transmission assembly.

[0086] Specifically, the power mechanism 30 may be a power component such as a reduction motor or an internal combustion engine that can output rotational power.

[0087] The above are only preferred embodiments of the present invention and are not intended to limit the present invention. Any modifications, equivalent substitutions and improvements made within the spirit and principles of the present invention should be included in the protection scope of the present invention.

Claims

1. A high-power refrigeration and heating device, characterized in that: include: A power mechanism (30) for outputting power; A multi-link transmission mechanism (20) having a power input end and a plurality of power output ends, wherein the power input end is connected to the power mechanism (30); A plurality of solid-state spring-cage heat regenerators (10) are respectively connected to different power output ends of the multi-link transmission mechanism (20) to provide cooling or heating under the drive of the power output ends; The heat transfer medium collecting mechanism is respectively connected to the plurality of solid-state spring-clip heat regenerators (10) to supply heat transfer medium to the plurality of solid-state spring-clip heat regenerators (10) respectively, and collects the heat transfer medium discharged after cooling or heating by the solid-state spring-clip heat regenerators (10) for heat exchange.

2. The high-power refrigeration and heating equipment according to claim 1, characterized in that: The multi-link transmission mechanism (20) comprises: A rotating main shaft (21) connected to the power mechanism (30); A main shaft support (26) is fixed relative to the solid-state spring-clip heat regenerator (10) and is rotatably connected to the rotating main shaft (21) to limit the rotating main shaft (21); A plurality of power output joints are arranged at intervals on the rotating main shaft (21) and are respectively connected to corresponding solid-state spring-cage heat regenerators (10); The portion where the main shaft support (26) is connected to the power mechanism (30) is the power input end, and the portion where the power output section is connected to the solid-state spring-clip heat regenerator (10) is the power output end.

3. The high-power refrigeration and heating equipment according to claim 2, characterized in that: The power output section comprises: An eccentric cam (23) fixedly mounted on the rotating main shaft (21); A first bearing (22) sleeved on the outer ring of the eccentric cam (23); A hoop (24), which is arranged outside the first bearing (22); A driving rod (25) has one end fixedly connected to the hoop (24) and the other end connected to the solid-state spring-clip heat regenerator (10).

4. The high-power refrigeration and heating equipment according to claim 3, characterized in that: The eccentric cam (23) is a disc-shaped wheel structure and has an eccentric shaft hole inside. The shaft hole is provided with an inner keyway. A portion of the rotating main shaft (21) corresponding to each eccentric cam (23) is provided with an outer keyway. The eccentric cam (23) and the rotating main shaft (21) are fixedly connected by a key bar clamped between the inner keyway and the outer keyway.

5. The high-power refrigeration and heating equipment according to claim 4, characterized in that: Adjacent external key grooves on the rotating main shaft (21) have a phase angle of 360 / n, where n is the number of the power output joints.

6. The high-power refrigeration and heating equipment according to claim 3, characterized in that: The hoop (24) comprises: A first half ring (241) is fixedly connected to the driving rod (25); A second half ring (242) is buckled and matched with the first half ring (241) and surrounds the outer ring of the first bearing (22); A half-ring fastener (243) connected to the first half-ring (241) and the second half-ring (242) respectively, so as to clamp the first half-ring (241) and the second half-ring (242) onto the outer ring of the first bearing (22); Wherein, the first half ring (241) and the second half ring (242) are provided with receiving grooves for receiving the outer ring of the first bearing (22) on their inner sides, so that the first half ring (241) and the second half ring (242) can be clamped on the outer ring of the first bearing (22) by the half ring fastener (243).

7. The high-power refrigeration and heating equipment according to claim 3, characterized in that: The solid-state spring-cage heat regenerator (10) comprises: A fixed sleeve (11); A plurality of solid spring-loaded material plates (12) are stacked in the fixed sleeve (11), and each of the solid spring-loaded material plates (12) comprises a perforation, and the plurality of perforations are stacked to form a flow cavity for a heat-conducting medium to pass through; A pressure head (13) is slidably disposed at one end of the fixed sleeve (11) and is connected to the driving rod (25) for loading or unloading the plurality of solid spring-loaded material plates (12) under the drive of the driving rod (25), so that the plurality of solid spring-loaded material plates (12) are deformed to generate heat or cooling; A plug structure (14) plugs the other end of the fixed sleeve (11) and abuts against the solid spring-loaded material plate (12) to limit the axial movement of the solid spring-loaded material plate (12); The medium delivery pipeline assembly is communicated with the flow cavity and the heat-conducting medium collecting mechanism for inputting and outputting the heat-conducting medium.

8. The high-power refrigeration and heating equipment according to claim 7, characterized in that: The solid-state spring-cage heat regenerator (10) further comprises: An outer sleeve (15) is sleeved on the outside of the fixed sleeve (11) and is interference fit with the fixed sleeve (11); The fixed sleeve (11) comprises: A first half cylinder (111) having a first half groove disposed therein; The second half cylinder (112) has a second half groove inside and is engaged with the first half cylinder (111) via a positioning structure, so that the first half groove and the second half groove form a cylinder cavity for accommodating a plurality of the solid spring material plates (12); A fixed sleeve longitudinal seal, disposed between the first half-cylinder (111) and the second half-cylinder (112), and used for sealing a joint between the first half-cylinder (111) and the second half-cylinder (112); The pressure head (13) comprises: A dynamic pressure head (131) is slidably disposed in the cylindrical cavity and abuts against the solid spring material plate (12); the dynamic pressure head (131) is provided with a first flow hole communicating with the flow cavity; A dynamic pressure head seal is provided between the dynamic pressure head (131) and the inner wall of the cylinder cavity for sealing; A dynamic pressure head (132), the dynamic pressure head (131) is connected to one end facing away from the solid spring-loaded material plate (12), and is provided with a second flow hole and a plurality of liquid separation holes, the second flow hole is connected to the first flow hole, and the plurality of liquid separation holes are connected to the second flow hole at one end and connected to and communicated with the medium delivery pipeline assembly at the other end; The driving pressure head (133) is slidably disposed in the outer sleeve (15), and is connected to the hydraulic pressure head (132) and the driving rod (25) to transmit power.

9. The high-power refrigeration and heating equipment according to claim 8, characterized in that: A slide rail is provided in the outer sleeve (15), and the driving pressure head (133) is slidably matched with the outer sleeve (15) via the slide rail; A limiting structure is provided between the solid-state spring-stuck material plate (12) and the fixed sleeve (11), for limiting the rotation between the solid-state spring-stuck material plate (12) and the fixed sleeve (11).

10. The high-power refrigeration and heating equipment according to claim 2, characterized in that: The high-power refrigeration and heating equipment also includes: A housing (40) arranged to cover the outside of the multi-link transmission mechanism (20); The power mechanism (30) is arranged on the housing (40), and one end of the rotating main shaft (21) passes through the housing (40); The multi-link transmission mechanism (20) further comprises: A compensating transmission assembly (27) is provided between the power mechanism (30) and the rotating main shaft (21) to perform compensating transmission.

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