New energy motor special-shaped coil forming device
By designing a multi-mechanism linkage new energy motor special-shaped coil forming device, the problem of low efficiency in the installation of special-shaped coils was solved, efficient automated production was achieved, and production efficiency was improved.
Patent Information
- Application Number
- CN202511299265.0
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2025-09-12
- Publication Date
- 2025-10-17
- Estimated Expiration
- 2045-09-12
AI Technical Summary
In existing technologies, the installation efficiency of irregularly shaped coils in the stator winding manufacturing of new energy motors is low, time-consuming and labor-intensive, and it is impossible to efficiently complete the stamping of irregularly shaped coils.
A new energy motor irregular coil forming device is designed, including an upper forming mechanism, a lower forming mechanism, a side forming mechanism and a mold closing mechanism. Through the linkage of multiple mechanisms, the irregular coil can be automatically stamped and formed. The irregular coil is precisely formed by using a copper wire guiding mechanism, a wire cutting mechanism and a cutting and fixing mechanism.
It realizes high-precision automated production of special-shaped coils, improves production efficiency, saves manpower, and has broad application prospects.
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Figure CN120811045A_ABST
Abstract
Description
TECHNICAL FIELD
[0001] The present application relates to a new energy motor profiled coil forming device, belonging to the new energy motor processing technical field. BACKGROUND
[0002] At present, in the winding production of new energy motor stator, the coil needs to be installed into the stator coil slot. For a specific shape of the stator, a profiled coil is needed. If the profiled coil stamping is performed manually, the efficiency will be low, time-consuming and labor-intensive.
[0003] In view of the above defects, the present application is intended to create a new energy motor profiled coil forming device, which has more industrial value. SUMMARY
[0004] To solve the above technical problems, the purpose of the present application is to provide a new energy motor profiled coil forming device.
[0005] The present application relates to a new energy motor profiled coil forming device, belonging to the new energy motor processing technical field. The present application relates to a new energy motor profiled coil forming device, belonging to the new energy motor processing technical field. The special-shaped coil product is a double-layer coil structure, which comprises a lower V-shaped section at the bottom, a right outer vertical line section and a left inner vertical line section connected to the two sides of the lower V-shaped section, an upper outer V-shaped section and an upper inner V-shaped section connected to the top ends of the right outer vertical line section and the left inner vertical line section, and a left outer vertical line section and a right inner vertical line section connected to the other ends of the upper outer V-shaped section and the upper inner V-shaped section. Further, the upper and lower left and right edges of the upper and lower mold closing surfaces of the outer mold and the inner mold are respectively provided with a set of matching upper inclined surfaces of the outer mold and the inner mold, two sets of matching side inclined surfaces of the outer mold and the inner mold, and a set of matching lower inclined surfaces of the outer mold and the inner mold. Through the design of these matching inclined surfaces, the insertion molding of the upper molding mechanism, the lower molding mechanism and the side molding mechanism is limited, so that each molding mechanism can be accurately inserted into place to complete the coil profiling production. Further, the back surface of the outer mold is drivingly connected to the output end of the outer mold driving cylinder, the outer mold driving cylinder is installed on the front surface of the working panel through the outer mold mounting plate, and a coil adjusting cylinder is also fixedly arranged on one side above the outer mold driving cylinder. An adjusting block is connected to the output end of the coil adjusting cylinder. In actual use, after the lower V-shaped section, the right outer vertical line section and the left inner vertical line section at the bottom and on both sides of the copper wire to be processed are stamped and formed, the left inner vertical line section is adjusted inward by the coil adjusting cylinder and the adjusting block, so that the left inner vertical line section moves inward and the right outer vertical line section moves outward, thereby facilitating the formation of a double-layer coil structure when the top of the copper wire to be processed is stamped. Further, the back surface of the inner mold is drivingly connected to the output end of the inner mold driving cylinder, and the inner mold driving cylinder is installed on the back surface of the working panel through the inner mold mounting plate. In actual use, the inner mold and the outer mold are driven to move towards each other by the inner mold driving cylinder and the outer mold driving cylinder to achieve mold closing on the forming working surface. After the copper wire to be processed is stamped and formed into a special-shaped coil product, the inner mold and the outer mold are opened and retreated to the original position, and the special-shaped coil product falls through the collection slide rod to the coil collection mechanism for collection.
[0006] Further, the working panel is a cross-shaped plate structure, and an upper mounting plate, a lower mounting plate, a left mounting surface and a right mounting surface are arranged in the upper, lower, left and right directions of the working panel in sequence. The upper molding mechanism is installed on the upper mounting plate, the lower molding mechanism is installed on the lower mounting plate, and the side molding mechanisms are symmetrically installed on the left and right mounting surfaces, respectively. A coil collection mechanism is also arranged in front of the working panel, and the coil collection mechanism is connected to the discharge end of the mold closing mechanism through a collection slide rod. It is used for collecting the special-shaped coil products processed and formed.
[0007] Further, the shearing fixing mechanism comprises a shearing inlet end, a fixing inlet end and a fixing unit, the shearing inlet end is located at one side of the mold closing mechanism inlet, the fixing inlet end and the fixing unit are located at the other side of the mold closing mechanism, a horn-shaped inlet guide block is arranged on the top of the shearing inlet end, which is used for guiding the copper wire to be processed entering the mold closing mechanism, the fixing inlet end is located at the front end of the fixing unit, and a horn-shaped fixing guide block is arranged on the upper surface of the fixing inlet end.
[0008] Further, the fixing unit comprises a fixing support fixed on the surface of the workbench, a fixing base is arranged on the side wall of the fixing support, a fixing cylinder is further arranged at the position of the fixing support opposite to the fixing base, a fixing pressing block is connected to the output end of the fixing cylinder, an optical sensor is further arranged on the top of the fixing support and faces the fixing base, and the optical sensor is in signal connection with the fixing cylinder and the shearing mechanism. In actual work, when the optical sensor detects the copper wire to be processed extending into the fixing unit, detection signals are transmitted to the fixing cylinder and the shearing mechanism in sequence, the fixing pressing block is first driven by the fixing cylinder to extend forward and press the copper wire to be processed on the fixing base, and then the shearing mechanism is started to shear the copper wire to be processed, so that the copper wire with the length of the processed special-shaped coil product is obtained. Further, the lower forming mechanism comprises left and right vertical slide rails symmetrically arranged on the surface of the workbench in the vertical direction, and a middle lower slide rail is arranged in the vertical direction at the middle position of the left and right vertical slide rails, left, right and middle lower forming blocks are slidably arranged on the surfaces of the left, right and middle lower slide rails respectively, and the bottoms of the left, right and middle lower forming blocks are in driving connection with the top output ends of left, right and middle lower forming cylinders in sequence. The top end of the middle lower forming block is a middle lower forming tool bit, the middle lower tool bit end is further provided with a middle lower tool bit profiling groove, and a middle lower forming slope is further arranged between the middle lower forming tool bit and the middle lower forming block body, and the size of the middle lower forming slope matches that of the outer mold lower slope and the inner mold lower slope. In actual use, the middle lower forming block is first driven upward by the middle lower forming cylinder, and the middle lower forming slope is matched with the outer mold lower slope and the inner mold lower slope, which saves the design space of the equipment on one hand, and plays a limiting effect through the slope fitting on the other hand, so that the middle lower forming block can be accurately stopped after reaching the limited position, and the copper wire to be processed is punched to form a lower V-shaped section from the middle through the cooperation of the middle lower tool bit profiling groove and the inner mold lower profiling convex edge. The left lower forming block and the right lower forming block are symmetrical to each other and arranged on the two sides of the middle lower forming block, and the left lower forming block and the right lower forming block are provided with lower forming tool bits through lower forming inclined surfaces on the side close to the middle lower forming block; the top corner of the lower forming tool bit is provided with a lower forming guide arc edge, which is used for guiding and protecting the copper wire during the stamping forming of the copper wire; and the lower forming inclined surface is matched with the outer mold side inclined surface and the inner mold side inclined surface. Further, each side forming mechanism includes a slide table cylinder slidably sleeved on a cylinder slide rail in a horizontal direction, and a forming mounting seat fixedly connected to the slide table cylinder through a connecting block; the forming mounting seat is slidably sleeved on the surface of a side moving slide rail arranged horizontally; a side forming block is fixedly connected to the forming mounting seat in a horizontal direction; each side forming block body is connected with a side forming tool bit through a side forming block inclined surface; the bottom of the side forming tool bit of the side forming mechanism arranged on the left mounting surface is provided with an inner side profiling edge, and the bottom of the side forming tool bit of the side forming mechanism arranged on the right mounting surface is provided with an outer side profiling edge; and one pair of side forming block inclined surfaces are matched with two groups of outer mold side inclined surfaces and inner mold side inclined surfaces. Through the matched inclined surfaces, the insertion forming of the side forming mechanism is limited, so that each forming mechanism can be accurately inserted into position to complete the coil profiling; in actual work, after the lower V-shaped sections at the bottom and on both sides of the copper wire, the right outer vertical line section and the left inner vertical line section are stamped and formed, the left inner vertical line section is inwardly adjusted by the adjusting block driven by the outward extension of the coil adjusting cylinder, so that the left inner vertical line section moves inwardly and the right outer vertical line section moves outwardly; then the side forming mechanism is started, and the left inner vertical line section and the right outer vertical line section are horizontally stamped through the inner side profiling edge and the outer side profiling edge on the left side and the right side respectively, so that the top ends of the left inner vertical line section and the right outer vertical line section are cross-shaped, facilitating the final stamping forming of the subsequent upper forming mechanism; Further, the upper forming mechanism includes left and right vertical slide rails arranged symmetrically on the surface of a work panel in a vertical direction, and a middle upper slide rail arranged in a vertical direction at the middle position of the left and right vertical slide rails; a left upper forming block, a right upper forming block and a middle upper forming block are slidably arranged on the surfaces of the left and right vertical slide rails and the middle upper slide rail respectively; and the top of the left upper forming block, the right upper forming block and the middle upper forming block are in turn in transmission connection with the bottom output end of a left upper forming cylinder, a right upper forming cylinder and a middle upper forming cylinder. The bottom end of the middle upper forming block is a middle upper forming tool head, and the end of the middle upper forming tool head is also cross provided with an outer side upper profiling groove and an inner side upper profiling groove, and a middle upper forming block slope is further arranged between the middle upper forming tool head and the middle upper forming block body, and the size of the middle upper forming block slope matches the size of the outer mold upper slope and the inner mold upper slope; in actual use, the left and right sides of the side forming mechanism are horizontally stamped on the left side inner vertical line segment and the right side outer vertical line segment, and after the left side inner vertical line segment and the right side outer vertical line segment are cross formed, the upper forming mechanism is started, the middle upper forming block is driven to be pressed down by the middle upper forming cylinder, and the middle upper forming block slope is matched with the outer mold upper slope and the inner mold upper slope, which saves the design space of the equipment on the one hand, and the slope fitting plays a limiting effect on the other hand, so that the middle upper forming block can be accurately stopped after reaching the limited position, and the cross right side outer vertical line segment and the left side inner vertical line segment are punched from the middle to form the upper outer V-shaped segment and the upper inner V-shaped segment through the cooperation of the outer side upper profiling groove, the inner side upper profiling groove, the outer mold upper profiling convex edge and the inner mold upper profiling convex edge. The left upper forming block and the right upper forming block are symmetrical to each other and arranged on the two sides of the middle upper forming block, and the left upper forming block and the right upper forming block body are connected with an upper side forming tool head through an upper side forming slope on the side close to the middle upper forming block, and the upper side forming tool head is provided with an upper side forming guide arc edge at the top corner, which plays a role of guiding and protecting the copper wire when the upper outer V-shaped segment and the upper inner V-shaped segment are stamped and formed.
[0009] By the above scheme, the application has at least the following advantages: The new energy motor special-shaped coil forming device of the application can realize full-automatic stamping and forming of special-shaped double-layer motor coils through linkage design of multiple mechanisms, has high operation precision, saves a large amount of manpower, greatly improves production efficiency, and has a wide application prospect.
[0010] The above description is only a summary of the technical scheme of the application, in order to more clearly understand the technical means of the application, and the content of the specification can be implemented, the following will be described in detail with the preferred embodiments of the application and the accompanying drawings. BRIEF DESCRIPTION OF DRAWINGS
[0011] In order to more clearly illustrate the technical solutions of the embodiments of the present application, the drawings needed to be used in the embodiments will be briefly introduced as follows. It should be understood that the following drawings only show some embodiments of the present application, and therefore should not be considered as a limitation to the scope. Other related drawings can also be obtained by those skilled in the art without any creative effort.
[0012] Figure 1 is a schematic diagram of the overall structure of the new energy motor special-shaped coil forming device of the present application; Figure 2 is a schematic diagram of the local structure of the new energy motor special-shaped coil forming device of the present application; Figure 3 is a schematic diagram of the shearing process structure in the new energy motor special-shaped coil forming device of the present application; Figure 4 is a schematic diagram of the shearing and fixing process structure in the new energy motor special-shaped coil forming device of the present application; Figure 5 is a schematic diagram of the copper wire to be processed in the new energy motor special-shaped coil forming device of the present application; Figure 6 is a schematic diagram of the die closing mechanism in the new energy motor special-shaped coil forming device of the present application; Figure 7 is a schematic diagram of the local structure of the die closing mechanism in the new energy motor special-shaped coil forming device of the present application; Figure 8 is a schematic diagram of the local structure of the die closing mechanism in the new energy motor special-shaped coil forming device of the present application; Figure 9 is a schematic diagram of the lower forming mechanism in the new energy motor special-shaped coil forming device of the present application; Figure 10 is a schematic diagram of the lower forming mechanism in the new energy motor special-shaped coil forming device of the present application; Figure 11 is a schematic diagram of the local structure of the lower forming mechanism in the new energy motor special-shaped coil forming device of the present application; Figure 12 is a schematic diagram of the side forming mechanism in the new energy motor special-shaped coil forming device of the present application; Figure 13 is a schematic diagram of the side forming block in the new energy motor special-shaped coil forming device of the present application; Figure 14 is a schematic diagram of the side forming block in the new energy motor special-shaped coil forming device of the present application; Figure 15 is a schematic diagram of the upper forming mechanism in the new energy motor special-shaped coil forming device of the present application; Figure 16is a partial structure schematic view of the upper forming mechanism in the new energy motor special-shaped coil forming device of the present application; Figure 17 is a partial structure schematic view of the upper forming mechanism in the new energy motor special-shaped coil forming device of the present application.
[0013] In the figure: 1, work panel; 2, upper forming mechanism; 3, lower forming mechanism; 4, side forming mechanism; 5, mold closing mechanism; 6, shearing fixing mechanism; 7, copper wire guide mechanism; 8, copper wire to be processed; 9, wire shearing mechanism; 10, coil collecting mechanism; 80, special-shaped coil finished product; 101, collecting slide rod; 11, upper mounting plate; 12, lower mounting plate; 13, left side mounting surface; 14, right side mounting surface; 61, shearing inlet end; 62, fixed inlet end; 63, fixed unit; 611, inlet guide block; 621, fixed guide block; 631, fixed support; 632, fixed base; 633, fixed air cylinder; 634, fixed pressing block; 635, photoelectric sensor; 81, lower V-shaped section; 82, right side outer vertical line section; 83, left side inner vertical line section; 84, upper outer V-shaped section; 85, upper inner V-shaped section; 86, left side outer vertical line section; 87, right side inner vertical line section; 51, outer mold; 52, inner mold; 53, outer mold mounting plate; 54, outer mold driving air cylinder; 55, coil adjusting air cylinder; 56, adjusting block; 57, inner mold mounting plate; 58, inner mold driving air cylinder; 511, upper profiling convex edge of outer mold; 512, mold closing cavity of outer mold; 513, side inclined surface of outer mold; 514, lower inclined surface of outer mold; 515, upper inclined surface of outer mold; 521, upper profiling convex edge of inner mold; 522, side profiling convex edge of inner mold; 523, lower profiling convex edge of inner mold; 524, side inclined surface of inner mold; 525, lower inclined surface of inner mold; 526, upper inclined surface of inner mold; 31, left vertical slide rail; 32, right vertical slide rail; 33, middle lower slide rail; 34, right lower forming air cylinder; 35, left lower forming air cylinder; 36, middle lower forming air cylinder; 37, right lower forming block; 38, left lower forming block; 39, middle lower forming block; 381, lower side forming inclined surface; 382, lower side forming tool bit; 383, lower side forming guide arc edge; 391, middle lower forming inclined surface; 392, middle lower forming tool bit; 393, middle lower tool bit profiling groove; 41, slide table air cylinder; 42, air cylinder slide rail; 43, connecting block; 44, forming mounting seat; 45, side forming block; 46, side moving slide rail; 451, side forming block slope; 452, side forming tool head; 453, inner side profiling edge; 454, outer side profiling edge; 21, middle upper slide rail; 22, left upper forming cylinder; 23, right upper forming cylinder; 24, middle upper forming cylinder; 25, left upper forming block; 26, right upper forming block; 27, middle upper forming block; 251, upper side forming slope; 252, upper side forming tool head; 253, upper side forming guide arc edge; 271, middle upper forming block slope; 272, middle upper forming tool head; 2721, outer side upper profiling groove; 2722, inner side upper profiling groove. DETAILED DESCRIPTION
[0014] The specific embodiments of the present application are described in detail below with reference to the accompanying drawings and examples. The following examples are used to illustrate the present application, but are not used to limit the scope of the present application.
[0015] Referring to Figures 1 to 3 The new energy motor special-shaped coil forming device of a preferred embodiment of the present application comprises a working panel 1, an upper forming mechanism 2 and a lower forming mechanism 3 are respectively arranged on the upper and lower ends of the front surface of the working panel 1, a mold closing mechanism 5 is arranged between the upper forming mechanism 2 and the lower forming mechanism 3, a pair of side forming mechanisms 4 are symmetrically arranged on both sides of the mold closing mechanism 5, a copper wire guide mechanism 7, a cutting mechanism 9 and a shearing fixing mechanism 6 are sequentially arranged on the horizontal working plane corresponding to the mold closing mechanism 5 from the inlet end to the fixed end, and a copper wire 8 to be processed is guided to pass through the copper wire guide mechanism 7 from the inlet end, sequentially passes through the cutting mechanism 9, the mold closing mechanism 5 and the shearing fixing mechanism 6, and the end of the copper wire 8 is fixed by the shearing fixing mechanism 6, and then is cut by the cutting mechanism 9 to obtain a copper wire with the length of a special-shaped coil product 80; The working panel 1 is a cross-shaped plate structure, and an upper mounting plate 11, a lower mounting plate 12, a left side mounting surface 13 and a right side mounting surface 14 are sequentially arranged on the working panel 1 in the upward, downward, leftward and rightward directions, the upper forming mechanism 2 is mounted on the upper mounting plate 11, the lower forming mechanism 3 is mounted on the lower mounting plate 12, the side forming mechanisms 4 are symmetrically mounted on the left side mounting surface 13 and the right side mounting surface 14 respectively, and a coil collecting mechanism 10 is further arranged in front of the working panel 1, the coil collecting mechanism 10 is connected with the discharge end of the mold closing mechanism 5 through a collecting slide rod 101, and is used for collecting the special-shaped coil product 80 formed by processing.
[0016] Referring to Figure 4The shearing fixing mechanism 6 includes a shearing inlet end 61, a fixing inlet end 62 and a fixing unit 63. The shearing inlet end 61 is located at one side of the mold closing mechanism 5, the fixing inlet end 62 and the fixing unit 63 are located at the other side of the mold closing mechanism 5, the top of the shearing inlet end 61 is provided with a trumpet-shaped inlet guide block 611 for guiding the copper wire 8 to be processed entering the mold closing mechanism 5, the fixing inlet end 62 is located at the front end of the fixing unit 63, the upper surface of the fixing inlet end 62 is provided with a trumpet-shaped fixing guide block 621 for guiding the copper wire 8 to be processed entering the fixing unit 63, the fixing unit 63 includes a fixing support 631 fixed on the surface of the workbench 1, the fixing support 631 is provided with a fixing base 632 on the side wall, and a fixing cylinder 633 is further arranged at the position of the fixing support 631 opposite to the fixing base 632. The output end of the fixing cylinder 633 is connected with a fixing pressing block 634, and a photoelectric sensor 635 opposite to the fixing base 632 is further arranged on the top of the fixing support 631. The photoelectric sensor 635 is in signal connection with the fixing cylinder 633 and the shearing mechanism 9. In the actual working process, when the photoelectric sensor 635 detects the copper wire 8 to be processed extending into the fixing unit 63, the detection signal is transmitted to the fixing cylinder 633 and the shearing mechanism 9 in sequence. The fixing pressing block 634 is driven by the fixing cylinder 633 to extend forward first, so as to press and fix the copper wire 8 to be processed on the fixing base 632, and then the shearing mechanism 9 is started to shear the copper wire 8 to be processed, so as to obtain the copper wire with the length of the shaped coil product 80. Referring to Figure 5 The shaped coil product 80 is a double-layer coil structure, which includes a lower V-shaped section 81 at the bottom, right outer vertical line sections 82 and left inner vertical line sections 83 connected to both sides of the lower V-shaped section 81 respectively, upper outer V-shaped sections 84 and upper inner V-shaped sections 85 connected to the top ends of the right outer vertical line sections 82 and the left inner vertical line sections 83 respectively, and left outer vertical line sections 86 and right inner vertical line sections 87 connected to the other ends of the upper outer V-shaped sections 84 and the upper inner V-shaped sections 85 respectively and vertically downward; Referring to Figures 6 to 8The die assembly mechanism 5 includes an openable outer die 51 and an inner die 52, the front surface of the inner die 52 is provided with an inner die upper profiling convex edge 521, an inner die side profiling convex edge 522 and an inner die lower profiling convex edge 523 which match the profiled coil finished product 80, the surface opposite to the inner die 52 of the outer die 51 is provided with an outer die upper profiling convex edge 511 which matches the inner die upper profiling convex edge 521, and below the outer die upper profiling convex edge 511 is provided with an outer die die assembly cavity 512 which matches the shape of the inner die side profiling convex edge 522; in actual use, after the outer die 51 and the inner die 52 are closed, the inner die upper profiling convex edge 521 and the outer die upper profiling convex edge 511 are tightly folded to form the forming die surface of the upper outer V-shaped section 84 and the upper inner V-shaped section 85 in the profiled coil finished product 80, and after the inner die side profiling convex edge 522 and the inner die lower profiling convex edge 523 are inserted into the outer die die assembly cavity 512, due to the limiting of the inner die upper profiling convex edge 521 and the outer die upper profiling convex edge 511, a section of the inner die side profiling convex edge 522 and the inner die lower profiling convex edge 523 will be reserved, wherein the reserved inner die side profiling convex edge 522 constitutes the forming die surface of the right outer vertical line section 82, the left inner vertical line section 83, the left outer vertical line section 86 and the right inner vertical line section 87 in the profiled coil finished product 80, and the reserved inner die lower profiling convex edge 523 forms the forming die surface of the lower V-shaped section 81 in the profiled coil finished product 80; The width of the inner die upper profiling convex edge 521 and the outer die upper profiling convex edge 511 is equal to the diameter of the copper wire 8 to be processed, The upper and lower left and right edges of the die assembly surface of the outer die 51 and the inner die 52 are respectively provided with a matched set of outer die upper inclined surface 515 and inner die upper inclined surface 526, two matched sets of outer die side inclined surface 513 and inner die side inclined surface 524, and a matched set of outer die lower inclined surface 514 and inner die lower inclined surface 525; through the design of these matched inclined surfaces, the insertion forming of the upper forming mechanism 2, the lower forming mechanism 3 and the side forming mechanism 4 is limited, so that each forming mechanism can be accurately inserted into place to complete the coil profiling; The back surface of the outer die 51 is transmissionally connected with the output end of the outer die driving air cylinder 54, the outer die driving air cylinder 54 is installed on the front surface of the working panel 1 through the outer die mounting plate 53, and a coil adjusting air cylinder 55 is also fixedly arranged at a position deviated to one side above the outer die driving air cylinder 54, and an adjusting block 56 is connected with the output end of the coil adjusting air cylinder 55; in actual use, after the lower V-shaped section 81, the right outer vertical line section 82 and the left inner vertical line section 83 at the bottom and both sides of the copper wire 8 to be processed are stamped and formed, the left inner vertical line section 83 is finely adjusted by the outer extension driving adjusting block 56 of the coil adjusting air cylinder 55, so that the left inner vertical line section 83 moves inward and the right outer vertical line section 82 moves outward, thereby facilitating the formation of a double-layer coil structure when the top of the copper wire 8 to be processed is stamped subsequently; The back of the inner mold 52 is drivingly connected with the output end of the inner mold driving cylinder 58, which is installed on the back of the working panel 1 through the inner mold mounting plate 57; in actual use, the inner mold 52 and the outer mold 51 are driven to move towards each other to the forming working surface to realize clamping through the inner mold driving cylinder 58 and the outer mold driving cylinder 54, respectively, after the copper wire 8 to be processed is stamped and formed into a special-shaped coil product 80, the inner mold 52 and the outer mold 51 are opened and retreated to the original position, and the special-shaped coil product 80 falls through the collecting slide rod 101 to the coil collecting mechanism 10 for collection.
[0017] Referring to Figures 9 to 11 , the lower forming mechanism 3 includes a left vertical slide rail 31 and a right vertical slide rail 32 symmetrically arranged on the surface of the working panel 1 in the vertical direction, and a middle lower slide rail 33 is also arranged in the vertical direction at the middle position of the left vertical slide rail 31 and the right vertical slide rail 32, and a left lower forming block 38, a right lower forming block 37 and a middle lower forming block 39 are slidably arranged on the surfaces of the left vertical slide rail 31, the right vertical slide rail 32 and the middle lower slide rail 33, respectively, and the bottoms of the left lower forming block 38, the right lower forming block 37 and the middle lower forming block 39 are drivingly connected with the top output ends of a left lower forming cylinder 35, a right lower forming cylinder 34 and a middle lower forming cylinder 36, respectively; The top end of the middle lower forming block 39 is a middle lower forming tool bit 392, the middle lower forming tool bit 392 is further provided with a middle lower tool bit profiling groove 393 at the end, and a middle lower forming inclined surface 391 is further arranged between the middle lower forming tool bit 392 and the middle lower forming block 39, and the size of the middle lower forming inclined surface 391 matches the sizes of the outer mold lower inclined surface 514 and the inner mold lower inclined surface 525; In actual use, first, the middle lower forming block 39 is driven to be lifted up by the middle lower forming cylinder 36, and the middle lower forming inclined surface 391 is matched with the outer mold lower inclined surface 514 and the inner mold lower inclined surface 525, which saves the design space of the equipment on the one hand, and plays a limiting effect through the inclined surface on the other hand, so that the middle lower forming block 39 can be accurately stopped after reaching the limited position, and the copper wire 8 to be processed is punched from the middle to form a lower V-shaped section 81 through the cooperation of the middle lower tool bit profiling groove 393 and the inner mold lower profiling convex edge 523; The left lower forming block 38 and the right lower forming block 37 are symmetrical to each other and arranged on the two sides of the middle lower forming block 39, and the left lower forming block 38 and the right lower forming block 37 are provided with lower forming tool bits 382 on the side close to the middle lower forming block 39 through lower forming inclined surfaces 381, and the lower forming tool bits 382 are provided with lower forming guide arc edges 383 at the top corners, which are used for guiding and protecting the copper wire during the stamping forming of the copper wire 8; the lower forming inclined surfaces 381 are matched with the outer mold side inclined surfaces 513 and the inner mold side inclined surfaces 524; during actual work, when the lower V-shaped section 81 is formed by stamping, the left lower forming cylinder 35 and the right lower forming cylinder 34 drive the left lower forming block 38 and the right lower forming block 37 to rise and fall at the same time, and the outer mold side inclined surfaces 513 and the inner mold side inclined surfaces 524 and the lower forming inclined surfaces 381 provide a guide function for the rising and falling of the left lower forming block 38 and the right lower forming block 37, improve the stability of the stamping forming, and finally form the right outer vertical line section 82 and the left inner vertical line section 83 at the two ends of the lower V-shaped section 81 through the symmetrical lower forming tool bits 382 on the two sides; Referring to Figures 12 to 14 Each of the side forming mechanisms 4 includes a sliding table cylinder 41 slidably sleeved on a cylinder sliding rail 42, and a forming mounting seat 44 is fixedly connected below the sliding table cylinder 41 through a connecting block 43, the forming mounting seat 44 is slidably sleeved on the surface of a side moving sliding rail 46 arranged horizontally, and a side forming block 45 is fixedly connected on the forming mounting seat 44 in the horizontal direction, and the front section of the body of each side forming block 45 is connected with a side forming tool bit 452 through a side forming block inclined surface 451, wherein the bottom of the side forming tool bit 452 of the side forming mechanism 4 installed on the left mounting surface 13 is provided with an inner side profiling edge 453, and the bottom of the side forming tool bit 452 of the side forming mechanism 4 installed on the right mounting surface 14 is provided with an outer side profiling edge 454, and the pair of side forming block inclined surfaces 451 are matched with two groups of outer mold side inclined surfaces 513 and inner mold side inclined surfaces 524, and the matched inclined surfaces provide a limit for the insertion forming of the side forming mechanism 4, so that each forming mechanism can be accurately inserted into position to complete the coil profiling; during actual work, after the lower V-shaped section 81, the right outer vertical line section 82 and the left inner vertical line section 83 at the bottom and on the two sides of the copper wire 8 are formed by stamping, the left inner vertical line section 83 is adjusted by the adjusting block 56 driven by the outer extension of the coil adjusting cylinder 55, so that the left inner vertical line section 83 moves inward and the right outer vertical line section 82 moves outward, then the side forming mechanism 4 is started, and the left inner vertical line section 83 and the right outer vertical line section 82 are horizontally stamped through the inner side profiling edge 453 and the outer side profiling edge 454 on the left and right sides, so that the top ends of the left inner vertical line section 83 and the right outer vertical line section 82 are cross-shaped, which is convenient for the final stamping forming of the upper forming mechanism 2; Referring to Figures 15 to 17The upper forming mechanism 2 comprises a left vertical slide rail 31 and a right vertical slide rail 32 symmetrically arranged on the surface of the work panel 1 in the vertical direction, and a middle upper slide rail 21 is arranged in the middle position of the left vertical slide rail 31 and the right vertical slide rail 32 in the vertical direction, and a left upper forming block 25, a right upper forming block 26 and a middle upper forming block 27 are slidably arranged on the surface of the left vertical slide rail 31, the right vertical slide rail 32 and the middle upper slide rail 21 respectively, and the top of the left upper forming block 25, the right upper forming block 26 and the middle upper forming block 27 is in turn in transmission connection with the bottom output end of a left upper forming cylinder 22, a right upper forming cylinder 23 and a middle upper forming cylinder 24; The bottom end of the middle upper forming block 27 is a middle upper forming tool bit 272, and the end of the middle upper forming tool bit 272 is crossly provided with an outer upper profiling groove 2721 and an inner upper profiling groove 2722, and a middle upper forming block bevel 271 is further arranged between the middle upper forming tool bit 272 and the middle upper forming block 27, and the size of the middle upper forming block bevel 271 matches that of the outer mold upper bevel 515 and the inner mold upper bevel 526; In actual use, the inner side profiling edge 453 and the outer side profiling edge 454 of the side forming mechanism 4 on the left and right sides horizontally stamp the left inner vertical line segment 83 and the right outer vertical line segment 82, so that the top ends of the left inner vertical line segment 83 and the right outer vertical line segment 82 are cross-shaped after forming, the upper forming mechanism 2 is started, the middle upper forming block 27 is driven to be pressed down by the middle upper forming cylinder 24, and the middle upper forming block bevel 271 is matched with the outer mold upper bevel 515 and the inner mold upper bevel 526, which saves the design space of the equipment on the one hand, and plays a limiting effect through the bevel on the other hand, so that the middle upper forming block 27 can be accurately stopped after reaching the limited position, and the cross-shaped right outer vertical line segment 82 and left inner vertical line segment 83 are punched from the middle to form an upper outer V-shaped segment 84 and an upper inner V-shaped segment 85 through the cooperation of the outer upper profiling groove 2721, the inner upper profiling groove 2722, the outer mold upper profiling convex edge 511 and the inner mold upper profiling convex edge 521; The left upper forming block 25 and the right upper forming block 26 are symmetrical to each other and arranged on the two sides of the middle upper forming block 27, and the left upper forming block 25 and the right upper forming block 26 are connected with the upper side forming tool bit 252 through the upper side forming slope 251 on the side close to the middle upper forming block 27, and the upper side forming tool bit 252 is provided with the upper side forming guide arc edge 253 at the top corner, which is used for guiding and protecting the copper wire when the upper outer V-shaped section 84 and the upper inner V-shaped section 85 are punched and formed; the upper side forming slope 251 is matched with the outer mold side slope 513 and the inner mold side slope 524; in actual work, when the upper outer V-shaped section 84 and the upper inner V-shaped section 85 are punched and formed, the left upper forming cylinder 22 and the right upper forming cylinder 23 drive the left upper forming block 25 and the right upper forming block 26 to press down at the same time, the cooperation of the outer mold side slope 513, the inner mold side slope 524 and the upper side forming slope 251 provides a guiding effect for the ascending and descending process of the left upper forming block 25 and the right upper forming block 26, improves the stability of the punching and forming, and finally the upper outer V-shaped section 84 and the upper inner V-shaped section 85 are punched to form the left outer vertical line section 86 and the right inner vertical line section 87 at the unformed end through the two symmetrical upper side forming tool bits 252, and finally the special-shaped coil product 80 is obtained.
[0018] The working principle of the present application is as follows: In the actual use process of the new energy motor special-shaped coil forming device, first, the copper wire 8 to be processed is sent into the device through the previous process, guided through the copper wire guiding mechanism 7 from the entrance end, and sequentially passes through the cutting mechanism 9, the mold closing mechanism 5 and the shearing fixing mechanism 6. When the photoelectric sensor 635 in the shearing fixing mechanism 6 detects the copper wire 8 inserted into the fixing unit 63, the detection signal is transmitted to the fixing cylinder 633 and the cutting mechanism 9 in turn. First, the fixing cylinder 633 drives the fixing block 634 to extend forward to press and fix the copper wire 8 to be processed on the fixing base 632, and then the cutting mechanism 9 starts to cut the copper wire 8 to be processed, so as to obtain the copper wire with the length of the special-shaped coil product 80. Then the inner mold 52 and the outer mold 51 are driven to move towards each other to the forming working surface to realize clamping by the inner mold driving air cylinder 58 and the outer mold driving air cylinder 54, respectively. After clamping, the upper outer V-shaped section 84 and the upper inner V-shaped section 85 in the special-shaped coil product 80 are formed by the upper profiled convex edge 521 on the inner mold and the upper profiled convex edge 511 on the outer mold. After the inner mold side profiled convex edge 522 and the inner mold lower profiled convex edge 523 are inserted into the outer mold clamping cavity 512, a section of the inner mold side profiled convex edge 522 and the inner mold lower profiled convex edge 523 are reserved due to the limitation of the upper profiled convex edge 521 on the inner mold and the upper profiled convex edge 511 on the outer mold. The reserved inner mold side profiled convex edge 522 forms the forming mold surface of the right outer vertical line section 82, the left inner vertical line section 83, the left outer vertical line section 86 and the right inner vertical line section 87 in the special-shaped coil product 80, and the reserved inner mold lower profiled convex edge 523 forms the forming mold surface of the lower V-shaped section 81 in the special-shaped coil product 80; After clamping is completed, the middle lower forming block 39 is first driven upward by the middle lower forming air cylinder 36. The middle lower forming slope 391 is matched with the outer mold lower slope 514 and the inner mold lower slope 525, which saves the design space of the equipment on the one hand, and plays a limiting effect through the slope on the other hand, so that the middle lower forming block 39 can be accurately stopped after reaching the limited position, and the copper wire 8 to be processed is punched from the middle to form the lower V-shaped section 81 through the cooperation of the middle lower cutter head profiled groove 393 and the inner mold lower profiled convex edge 523. When the lower V-shaped section 81 is punched and formed, the left lower forming air cylinder 35 and the right lower forming air cylinder 34 drive the left lower forming block 38 and the right lower forming block 37 to move upward, respectively. The cooperation of the outer mold side slope 513, the inner mold side slope 524 and the lower side forming slope 381 provides a guiding effect for the upward and downward movement of the left lower forming block 38 and the right lower forming block 37, improves the stability of the punching and forming, and finally punches the right outer vertical line section 82 and the left inner vertical line section 83 at both ends of the lower V-shaped section 81 through the two symmetrical lower side forming cutter heads 382; When the lower V-shaped section 81, the right outer vertical line section 82 and the left inner vertical line section 83 at the bottom and both sides of the copper wire 8 to be processed are punched and formed, the left inner vertical line section 83 is adjusted inward by the adjusting block 56 driven by the coil adjusting air cylinder 55, so that the left inner vertical line section 83 moves inward and the right outer vertical line section 82 moves outward. Then the side forming mechanism 4 is started, and the left inner vertical line section 83 and the right outer vertical line section 82 are horizontally punched by the inner side profiled edge 453 and the outer side profiled edge 454 on the left and right sides, respectively, so that the top ends of the left inner vertical line section 83 and the right outer vertical line section 82 are crossed and formed; Subsequently, the upper forming mechanism 2 is started, the middle upper forming block 27 is driven to press down by the middle upper forming cylinder 24, the middle upper forming block inclined surface 271 is matched with the outer mold upper inclined surface 515 and the inner mold upper inclined surface 526, which saves the design space of the equipment on the one hand, and plays a limiting effect through the inclined surface fitting, so that the middle upper forming block 27 can be accurately stopped after reaching the limited position, and the right side outer vertical line segment 82 and the left side inner vertical line segment 83 are punched from the middle to form the upper outer V-shaped segment 84 and the upper inner V-shaped segment 85 through the outer side upper profiling groove 2721 and the inner side upper profiling groove 2722 matched with the outer mold upper profiling convex edge 511 and the inner mold upper profiling convex edge 521 respectively; Finally, the left upper forming cylinder 22 and the right upper forming cylinder 23 drive the left upper forming block 25 and the right upper forming block 26 to press down respectively and simultaneously, the outer mold side inclined surface 513 and the inner mold side inclined surface 524 and the upper side forming inclined surface 251 are matched to provide a guiding effect for the left upper forming block 25 and the right upper forming block 26 during the rising and falling process, thereby improving the stability of the stamping forming, and finally the left side outer vertical line segment 86 and the right side inner vertical line segment 87 are punched from the unformed end of the upper outer V-shaped segment 84 and the upper inner V-shaped segment 85 by the two sides of the symmetrical upper side forming tool head 252, thereby obtaining the special-shaped coil product 80, the inner mold 52 and the outer mold 51 are opened and retreated to the original position, the special-shaped coil product 80 is slid down to the coil collecting mechanism 10 through the collecting slide rod 101 for collection, and the reciprocating cycle is repeated to complete the automatic forming of the special-shaped coil.
[0019] The above only describes the preferred embodiments of the present application and is not used to limit the present application. It should be noted that for ordinary skilled persons in the technical field, several improvements and modifications can be made without departing from the technical principles of the present application, and these improvements and modifications should be considered as the protection scope of the present application.
Claims
1. A new energy motor special-shaped coil forming device, including a working panel, characterized by: An upper forming mechanism and a lower forming mechanism are respectively provided at the upper and lower ends of the front surface of the working panel, a clamping mechanism is provided between the upper and lower forming mechanisms, a pair of side forming mechanisms are symmetrically provided on both sides of the clamping mechanism, and a copper wire guide mechanism, a wire cutting mechanism and a shearing and fixing mechanism are sequentially provided on the horizontal working plane corresponding to the clamping mechanism from the inlet end to the fixed end; The clamping mechanism includes an outer mold and an inner mold that can be opened and closed. The front surface of the inner mold is provided with an inner mold upper profiling convex edge, an inner mold side profiling convex edge and an inner mold lower profiling convex edge that match the finished special-shaped coil. The outer mold is provided with an outer mold upper profiling convex edge that matches the inner mold upper profiling convex edge on the surface opposite to the inner mold. An outer mold clamping cavity is provided below the outer mold upper profiling convex edge and the shape of the inner mold side profiling convex edge matches.
2. The new energy motor special-shaped coil forming device according to claim 1 is characterized in that: The four edges of the upper, lower, left and right sides of the outer and inner mold joint surfaces are respectively provided with a set of matching outer mold upper bevels and inner mold upper bevels, two sets of matching outer mold side bevels and inner mold side bevels, and a set of matching outer mold lower bevels and inner mold lower bevels.
3. The new energy motor special-shaped coil forming device according to claim 1 is characterized in that: The back of the outer mold is connected to the output end of the outer mold driving cylinder in a transmission manner. The outer mold driving cylinder is installed on the front surface of the working panel through the outer mold mounting plate. A coil adjustment cylinder is also fixedly provided at a position above the outer mold driving cylinder and to one side. An adjustment block is connected to the output end of the coil adjustment cylinder.
4. The new energy motor special-shaped coil forming device according to claim 1 is characterized in that: The back of the inner mold is transmission-connected to the output end of the inner mold driving cylinder, and the inner mold driving cylinder is mounted on the back of the working panel through the inner mold mounting plate.
5. The new energy motor special-shaped coil forming device according to claim 1 is characterized in that: The working panel is a cross-plate structure, and an upper mounting plate, a lower mounting plate, a left mounting surface and a right mounting surface are sequentially arranged in the upper, lower, left and right directions of the working panel. The upper forming mechanism is mounted on the upper mounting plate, the lower forming mechanism is mounted on the lower mounting plate, and the side forming mechanisms are symmetrically mounted on the left mounting surface and the right mounting surface. A coil collecting mechanism is also provided in front of the working panel, and the coil collecting mechanism is connected to the discharge end of the clamping mechanism through a collecting slide rod.
6. The new energy motor special-shaped coil forming device according to claim 1, characterized in that: The shearing and fixing mechanism includes a shearing inlet end, a fixed inlet end and a fixing unit. The shearing inlet end is located on one side of the inlet of the mold clamping mechanism, and the fixed inlet end and the fixing unit are located on the other side of the mold clamping mechanism. A trumpet-shaped inlet guide block is provided on the top of the shearing inlet end for guiding the copper wire to be processed entering the mold clamping mechanism. The fixed inlet end is located at the front end of the fixing unit, and a trumpet-shaped fixed guide block is provided on the upper surface of the fixed inlet end.
7. The device for forming special-shaped coils of new energy motors according to claim 6, characterized in that: The fixing unit includes a fixing bracket fixed on the surface of the working panel, a fixing base is provided on the side wall of the fixing bracket, a fixing cylinder is also provided at a position of the fixing bracket facing the fixing base, the output end of the fixing cylinder is connected to a fixed pressure block, and a photoelectric sensor is also provided on the top of the fixing bracket facing the fixed base, and signals are connected between the photoelectric sensor, the fixed cylinder and the thread cutting mechanism.
8. The new energy motor special-shaped coil forming device according to claim 1 is characterized in that: The lower forming mechanism includes a left vertical slide rail and a right vertical slide rail symmetrically arranged on the surface of the working panel in the vertical direction, a middle lower rail is further arranged in the vertical direction at the middle position between the left vertical slide rail and the right vertical slide rail, and a left lower forming block, a right lower forming block and a middle lower forming block are slidably arranged on the surfaces of the left vertical slide rail, the right vertical slide rail and the middle lower rail respectively, and the bottoms of the left lower forming block, the right lower forming block and the middle lower forming block are transmission connected to the top output ends of the left lower forming cylinder, the right lower forming cylinder and the middle lower forming cylinder in turn; The top of the middle and lower forming block is a middle and lower forming cutter head, the end of the middle and lower forming cutter head is also provided with a middle and lower cutter head profiling groove, and a middle and lower forming inclined surface is also provided between the middle and lower forming cutter head and the middle and lower forming block body, and the middle and lower forming inclined surface matches the size of the lower inclined surface of the outer mold and the lower inclined surface of the inner mold; The lower left forming block and the lower right forming block have the same shape and are symmetrically arranged on both sides of the middle and lower forming block. The lower left forming block and the lower right forming block body are both provided with lower forming cutter heads on the side close to the middle and lower forming block through the lower forming inclined surface. The top corner of the lower forming cutter head is provided with a lower forming guide arc edge, which is used to guide and protect the copper wire when the two sides of the copper wire to be processed are stamped and formed; the lower forming inclined surface is matched with the outer mold side inclined surface and the inner mold side inclined surface.
9. The new energy motor special-shaped coil forming device according to claim 1, characterized in that: Each of the side forming mechanisms includes a slide cylinder that is slidably sleeved on the cylinder slide rail in the horizontal direction, and a forming mounting seat is fixedly connected to the bottom of the slide cylinder through a connecting block. The forming mounting seat is slidably sleeved on the surface of the horizontally arranged side sliding slide rail, and a side forming block is fixedly connected to the forming mounting seat in the horizontal direction. The front section of each side forming block body is connected to a side forming cutter head through a side forming block inclined surface, wherein the side forming cutter head of the side forming mechanism installed on the left mounting surface is provided with an inner profiling ridge at the bottom, and the side forming cutter head of the side forming mechanism installed on the right mounting surface is provided with an outer profiling ridge at the bottom, and a pair of side forming block inclined surfaces are respectively matched with two groups of outer mold side inclined surfaces and inner mold side inclined surfaces.
10. The new energy motor special-shaped coil forming device according to claim 1, characterized in that: The upper forming mechanism includes a left vertical slide rail and a right vertical slide rail symmetrically arranged on the surface of the working panel in the vertical direction, and a middle upper slide rail is further arranged in the vertical direction at the middle position between the left vertical slide rail and the right vertical slide rail. A left upper forming block, a right upper forming block and a middle upper forming block are slidably arranged on the surfaces of the left vertical slide rail, the right vertical slide rail and the middle upper slide rail respectively, and the tops of the left upper forming block, the right upper forming block and the middle upper forming block are transmission connected to the bottom output ends of the left upper forming cylinder, the right upper forming cylinder and the middle upper forming cylinder in turn; The bottom end of the middle upper forming block is a middle upper forming cutter head, and the end of the middle upper forming cutter head is cross-arranged with an outer upper profiling groove and an inner upper profiling groove. A middle upper forming block inclined surface is also provided between the middle upper forming cutter head and the middle upper forming block body, and the size of the middle upper forming block inclined surface matches the upper inclined surface of the outer mold and the upper inclined surface of the inner mold; The upper left forming block and the upper right forming block have the same shape and are symmetrically arranged on both sides of the middle upper forming block. The upper left forming block and the upper right forming block body are connected to the upper forming cutter head through the upper forming bevel on the side close to the middle upper forming block. The upper forming guide arc edge is provided at the top corner of the upper forming cutter head, which is used to guide and protect the copper wire when the unformed ends of the upper outer V-shaped section and the upper inner V-shaped section are stamped and formed; the upper forming bevel is matched with the outer mold side bevel and the inner mold side bevel.
Citation Information
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