CN211539190U - Stamping progressive die for three-piece combined jacking of motor stator and rotor iron cores - Google Patents
Stamping progressive die for three-piece combined jacking of motor stator and rotor iron cores Download PDFInfo
- Publication number
- CN211539190U CN211539190U CN201922102708.9U CN201922102708U CN211539190U CN 211539190 U CN211539190 U CN 211539190U CN 201922102708 U CN201922102708 U CN 201922102708U CN 211539190 U CN211539190 U CN 211539190U
- Authority
- CN
- China
- Prior art keywords
- blanking
- die
- punching
- station
- stator
- Prior art date
- Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
- Active
Links
Images
Landscapes
- Manufacture Of Motors, Generators (AREA)
Abstract
The utility model discloses a punching progressive die for three combined trepanning of motor stator and rotor cores, which comprises a group of guide dies, a rotor core blanking area, a stator inner core blanking area and a stator outer ring blanking area, wherein the rotor core blanking area, the stator inner core blanking area and the stator outer ring blanking area are sequentially arranged according to the punching sequence; in the first blanking station to the thirteenth blanking station, except that the twelfth blanking station is a blank station, each of the rest blanking stations is provided with one or more blanking dies, each blanking die comprises a female die and a male die, and the actions and strokes of the male dies for realizing stamping lifting are respectively and independently controlled through cylinders. The utility model discloses material utilization is high, adaptability is good, and production efficiency is high.
Description
Technical Field
The utility model relates to a motor core makes the field, concretely relates to a punching press that is used for three combination trepanning of motor stator and rotor core to upgrade mould.
Background
The motor core is a core component of the motor and is used for increasing the magnetic flux of the inductance coil so as to realize the maximum conversion of electromagnetic power. The motor core generally includes a stator core and a rotor core.
In the prior art, a stator core of a motor is generally formed by laminating annular silicon steel sheets, and a plurality of uniformly distributed winding slots are punched in the inner circle of the silicon steel sheets along the circumferential direction. The problems with this conventional stator core are: firstly, the stator core is of an integrated structure, so that the winding is difficult and the production efficiency is low; secondly, the difficulty of winding also reduces the slot fill rate of the winding, resulting in reduced motor performance.
For this reason, an inside-outside assembly type motor stator core has been developed, which is composed of an inner core body 40 and an outer ring body 41 in fig. 6, wherein the inner core body is assembled in the outer ring body. The inner and outer assembled motor stator core can be assembled after winding, so that the winding is more convenient, the slot fullness rate after winding is higher, and the winding efficiency and the motor performance can be improved. The rotor part matched with the stator core of the internal and external assembled motor comprises a rotor core 39 as shown in fig. 6, and magnetic steel bars (the magnetic steel bars are not shown in fig. 6) are arranged on the outer circle of the rotor core 39 at intervals. The inner core body, the outer ring body and the rotor core are all formed by stamping and laminating silicon steel sheets. Wherein, in order to improve the direction of motor magnetic circuit, reduce the magnetic circuit loss, improve the silicon steel sheet of the inner core body of structure and be stamped into two kinds of forms: the whole inner core body with the whole circle structure and the inner core body scattered pieces with the adjacent tooth parts separated are overlapped with a plurality of layers of inner core body scattered pieces between every two whole circle inner core body pieces when the silicon steel sheets are laminated, so that the hollow structure 42 shown in figure 7 is formed on the inner core body.
In addition, under the condition that the main specification of the motor is determined, the sizes of the inner core bodies in the rotor core and the stator core are kept unchanged, but the design of the circumferential circular holes and the rivet overlapping holes distributed on the outer ring body of the stator core has different modified designs according to different use occasions.
The newly developed stator and rotor cores of the motor have the following problems if the conventional punching die is adopted for punching: firstly, the utilization rate of the material is low; secondly, the mold has poor universality and cannot meet the requirement of the deformation design of the circumferential round hole and the rivet overlapping hole on the outer ring body; thirdly, the components are required to be respectively stacked after being punched, and the production efficiency is relatively low. In addition, because the inner core body has two forms of an integral sheet structure and a scattered sheet structure, the integral sheet of the inner core body and the scattered sheet of the inner core body need to be punched by different dies, and the stacking after punching is troublesome.
SUMMERY OF THE UTILITY MODEL
In order to solve the problem, the utility model provides a punching press that is used for three combination trepanning of motor stator and rotor core upgrades mould aims at improving material utilization, improves the outer loop that the mould is to go up circumference round hole and fold the adaptability of riveting the hole variant design to improve production efficiency. The specific technical scheme is as follows:
a stamping progressive die for three combined trepanning of motor stator and rotor cores comprises a progressive die main body consisting of an upper die assembly and a lower die assembly, wherein a group of guiding dies for stamping guiding holes in a material strip, a rotor core blanking area and two stator core blanking areas are arranged on the progressive die main body in sequence according to a stamping sequence, the two stator core blanking areas are a stator inner core blanking area and a stator outer ring blanking area in sequence, a first blanking station, a second blanking station and a fourth blanking station are sequentially arranged on the rotor core blanking area, a fifth blanking station, a second blanking station and a seventh blanking station are sequentially arranged on the stator inner core blanking area, and an eighth blanking station, a third blanking station and a thirteenth blanking station are sequentially arranged on the stator outer ring blanking area; in the first to thirteenth blanking stations, except that the twelfth blanking station is a blank station, one or more blanking dies are respectively arranged on each of the rest blanking stations, each blanking die comprises a female die arranged on the lower die assembly and a male die arranged on the upper die assembly, and the actions and strokes of the male dies for realizing the lifting and descending of the stamping are respectively and independently controlled through cylinders.
According to the technical scheme, the punching progressive die adopts a three-piece combined nesting blanking mode, so that the rotor core, the stator inner core body and the stator outer ring body are completed in a pair of progressive dies through nesting blanking, the utilization rate of materials is improved, and the blanking efficiency is high.
In the technical scheme, six stations are arranged on the blanking area of the outer stator ring body in total, and eighth to tenth blanking stations are used for blanking circumferential round holes and overlapped riveting holes of different specifications on the outer ring body, so that the adaptability of the die to the deformation design of the circumferential round holes and the overlapped riveting holes on the outer ring body is improved.
Because the utility model provides a terrace die goes up and down to carry out the independent control through the cylinder, can determine whether this station will punch press by whether the control system control cylinder that upgrades the mould moves during the punching press. Due to the fact that the control system is used for controlling, punching holes in the eighth blanking station to the tenth blanking station can be used in a combined mode, and therefore flexibility of the die is further improved.
The specific setting mode of the blanking die on each blanking station is as follows:
the rotor core punching die comprises a rotor core punching area, and is characterized in that a first station circumferential round hole punching die and a second station circumferential round hole punching die which are arranged at different distribution positions are respectively arranged on a first punching station and a second punching station, a rotor spline inner hole punching die is arranged on a third punching station, and a rotor blanking punching die is arranged on a fourth punching station.
Preferably, the second blanking station is further provided with an inner hole marking groove pre-blanking die for the stator inner core body.
And on the stator inner core body blanking area, an inner core body overlapped riveting hole blanking die and an inner core body segmentation blanking die are respectively arranged on the fifth blanking station, an inner core body inner hole blanking die is arranged on the sixth blanking station, and an inner core body blanking die is arranged on the seventh blanking station.
The male die of the inner core body division blanking die is controlled by the air cylinder to perform stamping action or not so as to determine whether the inner core body is made into a whole piece or a scattered piece. For example, the control system of the progressive die can select to punch one whole inner core body and then continuously punch a plurality of scattered inner core body sheets to form an alternate cycle of blanking of the whole inner core body sheets and blanking of the scattered inner core body sheets, so that a hollow structure is formed on the stacked inner core bodies, and the performance of the magnetic circuit is improved.
In the stator outer ring body blanking area, eighth station circumferential round hole blanking dies, ninth station outer ring body overlapping riveting hole blanking dies, tenth station circumferential round hole blanking dies and tenth station outer ring body overlapping riveting hole blanking dies which are different in distribution position or different in specification are respectively arranged on the eighth blanking station to the tenth blanking station, an outer ring body inner hole blanking die is arranged on the eleventh blanking station, and an outer ring body blanking die is arranged on the thirteenth blanking station.
As a further optimization the utility model discloses a still be provided with fourteenth blanking station after the thirteenth blanking station, be provided with the limit waste material on the fourteenth blanking station and cut off blanking die.
The blanking die is cut off through setting up the limit waste material, and the material area waste material after the blanking is cut into the piece, is favorable to the recovery of waste material.
As a further improvement, the fourth blanking station is located the below of rotor blanking die is provided with the automatic closed assembly module of rotor.
The automatic rotor stacking module adopts an interference fit stacking module, and specifically, a tightening sleeve is arranged on the stacking module, and an inner hole of the tightening sleeve is in interference fit with the excircle of the rotor.
Preferably, an inner core body automatic stacking module is arranged below the inner core body blanking die on the seventh blanking station.
The automatic inner core body stacking module is provided with an inner core body stacking hole matched with the shape of the inner core body, a numerical control electric push rod is arranged below the inner core body stacking hole, the numerical control electric push rod upwards pushes against the punching sheet, and the numerical control electric push rod automatically moves downwards by the thickness of one punching sheet when each punching sheet is punched.
Preferably, an outer ring body automatic stacking module is arranged below the outer ring body blanking and blanking die on the thirteenth blanking station.
The automatic outer ring body stacking module is provided with an outer ring body stacking hole matched with the outer ring body in shape, a numerical control electric push rod is arranged below the outer ring body stacking hole and upwards propped against the punching sheet, and the numerical control electric push rod automatically moves downwards by the thickness of one punching sheet when each punching sheet is punched.
In addition, the automatic rotor stacking module, the automatic inner core stacking module and the automatic outer ring stacking module are respectively provided with a lateral pushing device so as to transfer the stacked iron cores into a material box.
The automatic overlapping modules are respectively arranged on the fourth blanking station, the seventh blanking station and the thirteenth blanking station, so that the rotor core, the stator inner core body and the stator outer ring body can be automatically blanked and overlapped in a pair of progressive dies, the automation degree is high, and the production efficiency is improved.
In addition, due to the fact that the progressive die realizes the blanking combination of the whole inner core body and the scattered inner core body, the whole inner core body and the scattered inner core body can be automatically stacked through the automatic stacking module of the inner core body after blanking, a hollow structure which improves the direction of a motor magnetic circuit and reduces the loss of the magnetic circuit is formed on the stacked stator inner core body, and therefore the automatic and efficient production of the blanking and stacking integration of the high-performance stator inner core body is achieved.
The utility model has the advantages that:
first, the utility model discloses a punching press that is used for three combination trepanning of motor stator rotor core upgrades mould adopts the blanking mode of three combination trepanning, has realized rotor core, stator inner core body and the outer loop of stator and has accomplished through the trepanning blanking in a pair upgrades the mould to improve the utilization ratio of material, and the efficiency of blanking is also higher.
Second, the utility model discloses a punching press that is used for three combination trepanning of motor stator and rotor core has set up six stations altogether on the outer annular body blanking region of stator, and eighth blanking station ~ tenth blanking station wherein is used for setting up different specification circumference round holes on the outer annular body and fold the blanking of riveting the hole to the adaptability that the mould was designed to the outer annular body on circumference round hole and fold the riveting hole variation has been improved.
Third, the utility model discloses a punching press that is used for three combination trepanning of motor stator and rotor core upgrades mould, its terrace die that upgrades the mould goes up and down to carry out the independent control through the cylinder, can whether move by the control system control cylinder who upgrades the mould during the punching press and decide whether this station will punch press. Due to the fact that the control system is used for controlling, punching holes in the eighth blanking station to the tenth blanking station can be used in a combined mode, and therefore flexibility of the die is further improved.
Fourth, the utility model discloses a punching press that is used for three combination trepanning of motor stator and rotor core upgrades mould, whether the terrace die that blanking die was cut apart to the inner core body is done the punching press action by cylinder independent control to decide the inner core body and make the whole piece or make scattered piece. For example, the control system of the progressive die can select to punch one whole inner core body and then continuously punch a plurality of scattered inner core body sheets to form an alternate cycle of blanking of the whole inner core body sheets and blanking of the scattered inner core body sheets, so that a hollow structure is formed on the stacked inner core bodies, and the performance of the magnetic circuit is improved.
Fifth, the utility model discloses a punching press that is used for three combination trepanning of motor stator and rotor core upgrades mould cuts off the blanking mould through setting up the limit waste material, and the material area waste material after the blanking is cut into the piece, is favorable to the recovery of waste material.
Sixth, the utility model discloses a punching press that is used for three combination trepanning of motor stator and rotor core upgrades mould through set up automatic closed assembly module on fourth blanking station, seventh blanking station and thirteenth blanking station respectively for rotor core, stator inner core body and the outer annular body of stator have realized automatic blanking and closed assembly simultaneously in a pair upgrades the mould, and its degree of automation is high, has improved production efficiency from this.
Seventh, the utility model discloses a punching press that is used for three combination trepanning of motor stator rotor core upgrades mould, the blanking combination of the whole piece of inner core and the interior core piece that looses has been realized, the whole piece of inner core and the interior core piece that looses can carry out automatic closed assembly through the automatic closed assembly module of inner core in the blanking back, and make to form the direction that improves motor magnetic circuit on the stator inner core after the closed assembly, reduce the hollow out construction of magnetic circuit loss, the blanking of core in the high performance stator has been realized from this, the automatic high-efficient production of closed assembly integration.
Drawings
Fig. 1 is a schematic structural view of a progressive stamping die (lower die assembly part) for three-piece combined nesting of a stator core and a rotor core of an electric machine according to the present invention;
FIG. 2 is a top view of FIG. 1;
FIG. 3 is a schematic view of a blanking die layout of the progressive die;
FIG. 4 is a partial enlarged view (left half) of FIG. 3;
fig. 5 is a partial enlarged view (right half) of fig. 3;
FIG. 6 is a schematic view of a rotor core, an inner core, and an outer ring of a stator and rotor core of a motor;
fig. 7 is a partial three-dimensional structural view of the core body in fig. 6.
In the figure: 1. a first blanking station, 2, a second blanking station, 3, a third blanking station, 4, a fourth blanking station, 5, a fifth blanking station, 6, a sixth blanking station, 7, a seventh blanking station, 8, an eighth blanking station, 9, a ninth blanking station, 10, a tenth blanking station, 11, an eleventh blanking station, 12, a twelfth blanking station, 13, a thirteenth blanking station, 14, a fourteenth blanking station, 15, a guide die, 16, a rotor core blanking region, 17, a stator core blanking region, 18, a stator outer ring blanking region, 19, a first station circumferential round hole blanking die, 20, a second station circumferential round hole blanking die, 21, a spline rotor inner hole blanking die, 22, a rotor blanking die, 23, an inner hole mark groove pre-blanking die, 24, an inner core lamination hole blanking die, 25, an inner core segmentation blanking die, 26, a spline rotor inner hole blanking die, 23, an inner hole mark groove pre-blanking die, 24, an inner core lamination hole blanking die, 25, the inner core body punching die comprises an inner core body inner hole punching die, 27, an inner core body blanking die, 28, an eighth station circumferential round hole punching die, 29, a ninth station circumferential round hole punching die, 30, a ninth station outer ring body overlapped riveting hole punching die, 31, a tenth station circumferential round hole punching die, 32, a tenth station outer ring body overlapped riveting hole punching die, 33, an outer ring body inner hole punching die, 34, an outer ring body blanking die, 35, an edge waste cutting and punching die, 36, a rotor automatic overlapping module, 37, an inner core body automatic overlapping module, 38, an outer ring body automatic overlapping module, 39, a rotor iron core, 40, an inner core body, 41, an outer ring body, 42 and hollow out.
Detailed Description
The following description will further describe embodiments of the present invention with reference to the accompanying drawings and examples. The following examples are only for illustrating the technical solutions of the present invention more clearly, and the protection scope of the present invention is not limited thereby.
Referring to fig. 1 to 7, an embodiment of the present invention relates to a progressive stamping die for three-piece combined nesting of stator and rotor iron cores of an electric machine, which comprises a progressive die body consisting of an upper die assembly and a lower die assembly, the progressive die main body is provided with a group of guide dies 15 for punching guide holes on the material strip, a rotor core blanking area 16 and two stator core blanking areas which are sequentially arranged according to the punching sequence, the two stator core blanking areas are a stator inner core body blanking area 17 and a stator outer ring body blanking area 18 in sequence, a first blanking station 1 to a fourth blanking station 4 are sequentially arranged on the rotor core blanking area 16, a fifth blanking station 5 to a seventh blanking station 7 are sequentially arranged on the stator core body blanking area 17, an eighth blanking station 8-a thirteenth blanking station 13 are sequentially arranged on the blanking area 18 of the outer ring body of the stator; in the first to thirteenth blanking stations 1 to 13, except that the twelfth blanking station 12 is a blank station, each of the rest blanking stations is provided with one or more blanking dies, each of the blanking dies comprises a female die arranged on the lower die assembly and a male die arranged on the upper die assembly, and the actions and strokes of the male dies for realizing the lifting and lowering of the stamping are respectively and independently controlled by cylinders.
In the technical scheme, the punching progressive die adopts a three-piece combined nesting blanking mode, so that the rotor core 39, the stator inner core body 40 and the stator outer ring body 41 are completed in a pair of progressive dies through nesting blanking, the utilization rate of materials is improved, and the blanking efficiency is higher.
In the technical scheme, six stations are arranged on the blanking area 18 of the outer stator ring body in total, wherein the eighth blanking station 8-the tenth blanking station 10 are used for blanking circumferential round holes and overlapped riveting holes with different specifications on the outer ring body 41, so that the adaptability of the die to the deformation design of the circumferential round holes and the overlapped riveting holes on the outer ring body is improved.
Because the lifting of the male die in the embodiment is independently controlled by the air cylinder, the control system of the progressive die can control whether the air cylinder acts to determine whether the station needs to punch or not during punching. Due to the fact that the control system is used for controlling, punching holes in the eighth blanking station 8-the tenth blanking station 10 can be used in a combined mode, and therefore flexibility of the die is further improved.
The specific setting mode of the blanking die on each blanking station is as follows:
on the rotor core blanking area 16, a first station circumferential round hole blanking die 19 and a second station circumferential round hole blanking die 20 which are arranged at different distribution positions are respectively arranged on the first blanking station 1 and the second blanking station 2, a rotor spline inner hole blanking die 21 is arranged on the third blanking station 3, and a rotor blanking die 22 is arranged on the fourth blanking station 4.
Preferably, the second blanking station 2 is further provided with an inner hole marking groove pre-blanking die 23 for the stator core body.
On the stator core blanking area 17, an inner core laminated riveting hole blanking die 24 and an inner core dividing blanking die 25 are respectively arranged on the fifth blanking station 5, an inner core inner hole blanking die 26 is arranged on the sixth blanking station 6, and an inner core blanking die 27 is arranged on the seventh blanking station 7.
The punch of the core body dividing and punching die 25 is controlled by the cylinder alone to perform the punching operation or not, so as to determine whether the core body 40 is made into an integral piece or a loose piece. For example, the control system of the progressive die may select to punch one whole core 40 and then continuously punch several loose cores 40, so as to form an alternating cycle of the whole punching of the core 40 and the loose punching of the core 40, so that the hollow 42 structure is formed on the stacked core 40, thereby improving the performance of the magnetic circuit.
In the stator outer ring blanking area 18, eighth station circumferential circular hole blanking dies 28, ninth station circumferential circular hole blanking dies 29, ninth station outer ring body rivet overlapping hole blanking dies 30, tenth station circumferential circular hole blanking dies 31 and tenth station outer ring body rivet overlapping hole blanking dies 32 which are arranged at different distribution positions or in different specifications are respectively arranged on the eighth blanking station 8 to the tenth blanking station 10, an outer ring body inner hole blanking die 33 is arranged on the eleventh blanking station 11, and an outer ring body blanking die 34 is arranged on the thirteenth blanking station 13.
As a further optimization of the present embodiment, a fourteenth blanking station 14 is further provided after the thirteenth blanking station 13, and the fourteenth blanking station 14 is provided with an edge scrap cutting and blanking die 35.
Above-mentioned through setting up the limit waste material and cutting off blanking die 35, the material area waste material after the blanking is cut into the piece, is favorable to the recovery of waste material.
As a further improvement of this embodiment, an automatic rotor stacking module 36 is disposed below the blanking die 22 in the fourth blanking station 4.
The automatic rotor stacking module 36 adopts an interference fit stacking module, specifically, a tightening sleeve is arranged on the stacking module, and an inner hole of the tightening sleeve is in interference fit with an outer circle of the rotor.
Preferably, an inner core automatic stacking module 37 is provided at the seventh blanking station 7 below the inner core blanking die 27.
The automatic inner core body stacking module 37 is provided with an inner core body stacking hole matched with the inner core body 40 in shape, a numerical control electric push rod is arranged below the inner core body stacking hole, the numerical control electric push rod upwards pushes against the punching sheet, and the numerical control electric push rod automatically moves downwards by the thickness of one punching sheet when each punching sheet is punched.
Preferably, an outer ring body automatic stacking module 38 is disposed below the outer ring body blanking die 34 in the thirteenth blanking station 13.
The outer ring body stacking module 38 is provided with an outer ring body stacking hole matched with the outer ring body 41 in shape, a numerical control electric push rod is arranged below the outer ring body stacking hole, the numerical control electric push rod is upwards propped against the punching sheet, and the numerical control electric push rod automatically moves downwards by the thickness of one punching sheet when each punching sheet is punched.
In addition, the automatic rotor stacking module 36, the automatic inner core stacking module 37 and the automatic outer core stacking module 38 are further provided with lateral pushing devices respectively, so as to transfer the stacked iron cores into a material box.
The automatic overlapping modules are respectively arranged on the fourth blanking station 4, the seventh blanking station 7 and the thirteenth blanking station 13, so that the rotor core 39, the stator core body 40 and the stator outer ring body 41 can be automatically blanked and overlapped in a pair of progressive dies, the automation degree is high, and the production efficiency is improved.
In addition, because the progressive die realizes the blanking combination of the whole inner core body 40 and the scattered inner core body 40, the whole inner core body 40 and the scattered inner core body 40 can be automatically stacked through the automatic stacking module 37 of the inner core body after being blanked, and a hollow-out 42 structure which improves the direction of a motor magnetic circuit and reduces the loss of the magnetic circuit is formed on the stacked stator inner core body 40, thereby realizing the automatic and efficient production of the blanking and stacking integration of the high-performance stator inner core body 40.
The foregoing is only a preferred embodiment of the present invention, and it should be noted that, for those skilled in the art, a plurality of improvements and decorations can be made without departing from the technical principle of the present invention, and these improvements and decorations should also be regarded as the protection scope of the present invention.
Claims (9)
1. A stamping progressive die for three combined trepanning of motor stator and rotor cores is characterized by comprising a progressive die main body consisting of an upper die assembly and a lower die assembly, wherein a group of guide dies for stamping guide holes in a material strip, a rotor core blanking area and two stator core blanking areas are arranged on the progressive die main body in sequence according to a stamping sequence; in the first to thirteenth blanking stations, except that the twelfth blanking station is a blank station, one or more blanking dies are respectively arranged on each of the rest blanking stations, each blanking die comprises a female die arranged on the lower die assembly and a male die arranged on the upper die assembly, and the actions and strokes of the male dies for realizing the lifting and descending of the stamping are respectively and independently controlled through cylinders.
2. The progressive die for punching three combined trepanning of motor stator and rotor cores according to claim 1, wherein a first station circumferential circular hole punching die and a second station circumferential circular hole punching die which are distributed at different positions are respectively arranged on the first punching station and the second punching station of the rotor core punching area, a rotor spline inner hole punching die is arranged on a third punching station, and a rotor blanking punching die is arranged on a fourth punching station.
3. The progressive die for punching a three-piece combined trepanning of a stator core and a rotor core of an electric machine according to claim 2, wherein the second punching station is further provided with an inner hole marking slot pre-punching die for a stator inner core body.
4. The progressive die for punching three combined trepanning of stator and rotor iron cores of an electric machine according to claim 1, wherein an inner core laminated riveting hole punching die and an inner core dividing punching die are respectively arranged on the fifth punching station, an inner core inner hole punching die is arranged on the sixth punching station, and an inner core blanking punching die is arranged on the seventh punching station in the stator inner core punching area.
5. The progressive die for punching three combined trepanning of iron cores of stators and rotors of electric machines according to claim 1, wherein the eighth to tenth punching stations are respectively provided with an eighth station circumferential circular hole punching die, a ninth station outer ring overlapped riveting hole punching die, a tenth station circumferential circular hole punching die, and a tenth station outer ring overlapped riveting hole punching die with different distribution positions or different specifications in the stator outer ring punching area, the eleventh punching station is provided with an outer ring inner hole punching die, and the thirteenth punching station is provided with an outer ring blanking die.
6. The progressive die for punching three combined trepanning of motor stator and rotor cores according to claim 1, wherein a fourteenth punching station is further arranged after the thirteenth punching station, and an edge scrap cutting and punching die is arranged on the fourteenth punching station.
7. The progressive die for punching three-piece combined trepanning of motor stator and rotor cores according to claim 2, wherein a rotor automatic stacking module is arranged below the rotor blanking die at the fourth blanking station.
8. The progressive die for punching three-piece combined trepanning of motor stator and rotor cores according to claim 4, wherein an inner core automatic stacking module is arranged below the inner core blanking die at the seventh blanking station.
9. The progressive die for punching three-piece combined nesting of stator and rotor cores of an electric machine as recited in claim 5, wherein an outer ring body automatic stacking module is disposed below said outer ring body blanking die at said thirteenth blanking station.
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN201922102708.9U CN211539190U (en) | 2019-11-29 | 2019-11-29 | Stamping progressive die for three-piece combined jacking of motor stator and rotor iron cores |
Applications Claiming Priority (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN201922102708.9U CN211539190U (en) | 2019-11-29 | 2019-11-29 | Stamping progressive die for three-piece combined jacking of motor stator and rotor iron cores |
Publications (1)
| Publication Number | Publication Date |
|---|---|
| CN211539190U true CN211539190U (en) | 2020-09-22 |
Family
ID=72502876
Family Applications (1)
| Application Number | Title | Priority Date | Filing Date |
|---|---|---|---|
| CN201922102708.9U Active CN211539190U (en) | 2019-11-29 | 2019-11-29 | Stamping progressive die for three-piece combined jacking of motor stator and rotor iron cores |
Country Status (1)
| Country | Link |
|---|---|
| CN (1) | CN211539190U (en) |
Cited By (2)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN113824277A (en) * | 2021-11-24 | 2021-12-21 | 宁波震裕科技股份有限公司 | Manufacturing process of shaft hole single-key motor iron core |
| CN113949235A (en) * | 2021-12-21 | 2022-01-18 | 宁波震裕科技股份有限公司 | Manufacturing process of motor rotor iron core with special-shaped tooth part |
-
2019
- 2019-11-29 CN CN201922102708.9U patent/CN211539190U/en active Active
Cited By (4)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN113824277A (en) * | 2021-11-24 | 2021-12-21 | 宁波震裕科技股份有限公司 | Manufacturing process of shaft hole single-key motor iron core |
| CN113824277B (en) * | 2021-11-24 | 2022-02-08 | 宁波震裕科技股份有限公司 | Manufacturing process of shaft hole single-key motor iron core |
| CN113949235A (en) * | 2021-12-21 | 2022-01-18 | 宁波震裕科技股份有限公司 | Manufacturing process of motor rotor iron core with special-shaped tooth part |
| CN113949235B (en) * | 2021-12-21 | 2022-02-22 | 宁波震裕科技股份有限公司 | Manufacturing process of motor rotor iron core with special-shaped tooth part |
Similar Documents
| Publication | Publication Date | Title |
|---|---|---|
| CN111001705A (en) | Stamping progressive die for three-piece combined jacking of motor stator and rotor iron cores | |
| CN211539190U (en) | Stamping progressive die for three-piece combined jacking of motor stator and rotor iron cores | |
| CN102005869B (en) | Blank pressing process used in punching rotor slot on motor stator plate and key mold thereof | |
| CN202111540U (en) | Section-type stator core | |
| CN201181860Y (en) | Split type motor stator core | |
| CN101633018A (en) | Punching processing technology of motor stator and rotor laminations | |
| CN105119394B (en) | Partition folds riveting formula electric machine iron core and its manufacture method and the special device of this method | |
| CN209021041U (en) | A kind of progressive die for rotary transformer stator-rotor iron core punching press | |
| WO2021103984A1 (en) | Permanent magnet motor rotor machining process and rotor assembly | |
| CN114744836B (en) | Multi-model steel sheet combined laminated motor iron core, manufacturing method and continuous stamping die | |
| JP5202577B2 (en) | Manufacturing method of stator laminated iron core | |
| CN211803378U (en) | Stamping progressive die for block iron core | |
| CN113991951A (en) | Permanent magnet motor rotor machining process and rotor assembly | |
| CN201656702U (en) | Block-type motor stator lamination | |
| CN111740555B (en) | Manufacturing method of magneto stator core | |
| CN202282657U (en) | Motor stator core composite structure | |
| CN211183739U (en) | Block type stator core's straightness plastic frock that hangs down | |
| CN204835725U (en) | Spacer is folded and is riveted formula motor iron core | |
| CN201742250U (en) | Stator notching die | |
| CN103001415A (en) | Processing technique of motor stator and rotor punches | |
| CN111756130A (en) | Stator core of magneto | |
| CN205377472U (en) | Brushless motor's outer wound -rotor type stator towards piece and stator core | |
| CN211183548U (en) | Inside and outside assembled motor stator core | |
| CN212381000U (en) | Stator core of magneto | |
| CN218733747U (en) | Stamping die structure for high-density laminated riveting rotor |
Legal Events
| Date | Code | Title | Description |
|---|---|---|---|
| GR01 | Patent grant | ||
| GR01 | Patent grant | ||
| CP01 | Change in the name or title of a patent holder |
Address after: No. 137, Yungu Road, Xingong village, Gushan Town, Jiangyin City, Wuxi City, Jiangsu Province, 214400 Patentee after: Jiangyin Huaxin Precision Technology Co.,Ltd. Address before: No. 137, Yungu Road, Xingong village, Gushan Town, Jiangyin City, Wuxi City, Jiangsu Province, 214400 Patentee before: JIANGYIN HUAXIN ELECTRIC Corp. |
|
| CP01 | Change in the name or title of a patent holder |