CN204680498U - Axially cooling radial transmission line ring type parallel circuits electromagnet - Google Patents
Axially cooling radial transmission line ring type parallel circuits electromagnet Download PDFInfo
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- CN204680498U CN204680498U CN201520433980.4U CN201520433980U CN204680498U CN 204680498 U CN204680498 U CN 204680498U CN 201520433980 U CN201520433980 U CN 201520433980U CN 204680498 U CN204680498 U CN 204680498U
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Abstract
The purpose of this utility model is to provide axially cooling radial transmission line ring type parallel circuits electromagnet, comprises axial cooled iron core, radial coil, armature back-moving spring, armature, valve rod, valve pocket, position-arresting ring, rubber buffer pad, upper shell, lower house and remaining air gap adjustable ring.The utility model energy effective cooling core interior and coil, reduce armature surface hydraulic coupling, reduce the damping force acted on armature, and traditional single multiturn coil is carried out dispersed placement, reduce the inductance of coil, promote the rate of climb and the rate of decay of electric current in coil, accelerate the response speed of electromagnet; In addition the principle of parallel circuits is utilized, common axis is to cooled iron core and radial coil, Synchronization Control two armature, and act on same control chamber, while can response speed being ensured, increase the flow of control valve, the pressure energy of control chamber is unloaded rapidly, fuel injector oil-break is clear-cut, the control precision of favourable raising oil spout and engine fuel economy, reduces discharge.
Description
Technical field
The utility model relates to a kind of diesel engine fuel injecting electric control gear, specifically electromagnet.
Background technology
Electronic Control for Fuel Injection System of Diesel Engine has the flexible feature such as controlled of high injection pressure, injection timing and fuel injection characteristic because of it, is the effective means improving diesel engine height fuel economy at present and reduce hazardous emission etc., obtains and apply widely.And no matter be electrically-controlled pump nozzle, monoblock pump, dispensing pump, still high pressure common rail electric-controlled fuel injection system with fastest developing speed at present, high-speed electro-magnet is all the most critical ensureing that can they normally work, most crucial parts, the accurate control that Electronic Control for Fuel Injection System of Diesel Engine is moved to high-speed electro-magnet by ECU (Electrical Control Unit) is to realize circulating fuel injection quantity, the accurate control of injection timing and fuel injection characteristic, but still there is following shortcoming in its use: for high rotary speed working diesel engine, repeatedly be magnetized electromagnet high frequency, due to the permeance of electromagnet material itself, magnetic hysteresis and eddy current loss is inevitably made to increase, quantity of heat production is caused to increase, simultaneously for meeting the height response requirement of electromagnet, normal employing large driven current density is to accelerate its response speed, the caloric value of coil is increased, work of electromagnet temperature is caused to raise, and the rising of work of electromagnet temperature, the magnetic property of its permeability magnetic material declines, the dynamic responding speed of electromagnet reduces, the resistance of winding wire increases simultaneously, electric conductivity reduces, power output is caused to increase, also reduce the security reliability of coil, in addition, there is contradictory relation in electromagnet armature lift and its response, namely strengthens armature lift and electromagnet response speed can be caused to slow down, and is difficult to the requirement simultaneously meeting electromagnet response and its control valve flow.
Disclose a kind of combined high-speed electro-magnet iron core in publication number CN 201204109Y patent document, be made up of iron-core workpiece, circular iron core seat and non-magnetic metal-coating, iron-core workpiece is added together by the shaping silicon steel sheet stack of multi-disc, forms iron core group component; Iron core base is that soft magnetic material overall processing forms, and has a horizontal groove in the middle part of it.This electromagnet core have employed the combining form of silicon steel sheet and soft magnetism integral material, reduce eddy current to a certain extent, electromagnet core temperature can be reduced, but it is still traditional E type structure, only cored upper surface can contact with cooling fluid carries out heat convection efficiently, then heat exchange is carried out mainly through heat transfer form with coil in the middle part of iron core, and thermal resistance is large, heat exchange efficiency is low, good cooling cannot be carried out in the middle part of coil and iron core, cause the temperature of coil and iron core effectively not reduce.
Summary of the invention
The purpose of this utility model is to provide high response, large discharge, heat radiation axis that is good, high reliability to cool radial transmission line ring type parallel circuits electromagnet.
The purpose of this utility model is achieved in that
The utility model is cooling radial transmission line ring type parallel circuits electromagnet axially, it is characterized in that: comprise the first half, lower part, axial cooled iron core;
The first half comprises housing, valve rod, armature, armature back-moving spring, armature chamber and iron core hole is set gradually in housing, the end face of housing inwardly offers valve pocket hole, valve pocket hole is adjacent with armature chamber, valve rod is through valve pocket hole, its end stretches in armature chamber, and the end of armature and valve rod fixes, and the sidewall of housing is offered the armature chamber's cooling liquid inlet communicated with armature chamber; The latter half is identical with the first half structure, is oppositely arranged;
Axial cooled iron core is cylindrical structure, the middle part of upper and lower two end faces of cylinder all arranges spring eye, between spring eye and cylindrical sidewall, annular groove is set, it is coil inner core between the annular groove on two sides, coil inner spindle is to having at least two through holes, cylindrical sidewall has the radial cooling liquid outlet identical with number of openings, the through hole that each radial cooling liquid outlet is corresponding with it communicates, coiling radial coil on coil inner core;
Two end faces up and down of axial cooled iron core are separately positioned in the iron core hole of the first half and the latter half, between the spring eye that the armature back-moving spring of the first half is arranged on axial cooled iron core upper surface and the armature of the first half, between the spring eye that the armature back-moving spring of the latter half is arranged on axial cooled iron core lower surface and the armature of the latter half; Be bolted between the housing of the first half and the housing of the latter half, and between the housing of the first half and the housing of the latter half, leave the annular groove communicated with radial cooling liquid outlet.
The utility model is cooling radial transmission line ring type parallel circuits electromagnet axially, it is characterized in that: comprise the first half, lower part, axial cooled iron core;
The first half comprises housing, valve rod, armature, armature back-moving spring, armature chamber and iron core hole is set gradually in housing, the end face of housing inwardly offers valve pocket hole, valve pocket hole is connected with armature chamber, valve rod is through valve pocket hole, its end stretches in armature chamber, and the armature chamber's cooling liquid inlet communicated with armature chamber, to fixing, the sidewall of housing is offered in the end of armature and valve rod; The latter half is identical with the first half structure, is oppositely arranged;
Axial cooled iron core is the cylindrical structure that sidewall has scalloped recess, the middle part of upper and lower two end faces of cylinder all arranges spring eye, between spring eye and cylindrical sidewall, annular groove is set, it is coil inner core between the annular groove on two sides, scalloped recess opens in coil that core is axially, described scalloped recess has two at least, coiling radial coil on coil inner core;
Two end faces up and down of axial cooled iron core are separately positioned in the iron core hole of the first half and the latter half, between the spring eye that the armature back-moving spring of the first half is arranged on axial cooled iron core upper surface and the armature of the first half, between the spring eye that the armature back-moving spring of the latter half is arranged on axial cooled iron core lower surface and the armature of the latter half;
Be bolted between the housing of the first half and the housing of the latter half, and leave annular groove between the housing of the first half and the housing of the latter half.
The utility model can also comprise:
1, the cross section of through hole is fan-shaped or kidney-shaped, and the height of coil is no more than the degree of depth of annular groove, leaves louvre between adjacent windings.
2, scalloped recess internal diameter is less than or equal to annular groove internal diameter, and the height of coil is no more than the degree of depth of annular groove, and leave radiating groove between adjacent two coils, annular groove communicates with radiating groove.
Install valve pocket in the valve pocket hole of 3, the first half, stem exterior is set with position-arresting ring, housing end face is installed rubber buffer pad, and rubber buffer pad is positioned at valve pocket periphery.
Advantage of the present utility model is: axially cooling radial transmission line ring type parallel circuits electromagnet of the present utility model, have employed the structure of axial cooled iron core, radial coil and parallel circuits, increase the area of dissipation of coil and iron core, make the heat convection of core interior axis be achieved simultaneously, make core interior and coil obtain good cooling, ensure that the magnetic property that the electric conductivity that coil is good and security reliability and core material are good; Secondly the liquid between armature and iron core can be gone out by louvre or concentrated flow, make between armature and iron core less by the liquid compressed, armature surface hydraulic coupling reduces, reduce the damping force acted on armature, also traditional single multiturn coil is carried out dispersed placement simultaneously, reduce the inductance of coil, the rate of climb and the rate of decay of electric current in coil can be improved, accelerate the response speed of electromagnet; Armature is placed in armature chamber in addition, avoids the direct impact of high pressure fuel, is conducive to the stable of armature state; Utilize the principle of parallel circuits simultaneously, common axis is to cooled iron core and radial coil, Synchronization Control two armature, and act on same control chamber, while can response speed being ensured, superpose two armature lifts, increase the flow of control valve, the pressure energy of control chamber is unloaded rapidly, and fuel injector oil-break is clear-cut, the control precision of favourable raising oil spout and engine fuel economy, reduce discharge.
Accompanying drawing explanation
Fig. 1 is structural representation of the present utility model;
Fig. 2 is the vertical view of axial cooled iron core 1 and radial coil 2 in Fig. 1;
Fig. 3 is the A-A cutaway view of Fig. 2;
Fig. 4 is the general view of axial cooled iron core 1 in Fig. 1;
Fig. 5 is the form that in Fig. 1, axial cooled iron core 1 annular groove 18 axially has two through hole;
Fig. 6 is the structural representation of axial cooled iron core 1 when axial cooled iron core 1 annular groove 18 axially has 3 through hole in Fig. 1 and radial coil 2;
Fig. 7 a is through hole 14 cross section in Fig. 1 on axial cooled iron core 1 is fan-shaped structural representation, and Fig. 7 b is through hole 14 cross section in Fig. 1 on axial cooled iron core 1 is the structural representation of kidney-shaped;
Fig. 8 is the left view of upper shell in Fig. 1;
Fig. 9 is the vertical view of upper shell in Fig. 1;
Figure 10 is the form that in Fig. 1, scalloped recess is opened on axial cooled iron core 1 surface;
Figure 11 is general view when scalloped recess is opened on axial cooled iron core 1 surface in Fig. 1;
Figure 12 a is the form that two scalloped recess are opened on axial cooled iron core 1 surface, and Figure 12 b is the form that 3 scalloped recess are opened on axial cooled iron core 1 surface;
Figure 13 is excitation principle schematic diagram of the present utility model.
Embodiment
Below in conjunction with accompanying drawing citing, the utility model is described in more detail:
Composition graphs 1 ~ 13, the composition of the first execution mode of axially cooling radial transmission line ring type parallel circuits electromagnet of the present utility model comprises axial cooled iron core 1, radial coil 2, armature back-moving spring 4, armature 5, valve rod 6, valve pocket 7, position-arresting ring 8, rubber buffer pad 27, upper shell 9, lower house 28 and remaining air gap adjustable ring 12.Upper shell 9 is square, end face has four bolt holes 20, center is provided with iron core hole 19 and armature chamber 10 successively, remaining air gap adjustable ring 12 is placed in bottom iron core hole 19, bottom centre of armature chamber 10 has a valve pocket hole 21, embedded valve pocket 7, upper shell 9 side is provided with armature chamber's cooling liquid inlet 11 in addition, valve rod 6 is fixedly connected with armature 5, through the valve pocket 7 of upper shell 9, arrange with armature chamber 10, valve pocket 7 and valve rod 6 are a coupling part, position-arresting ring 8 is by interference fit or be threaded and be fixed on the relevant position of valve rod 6, it is peripheral that rubber buffer pad 27 sticks in upper shell 9 valve pocket 7, relative with position-arresting ring 8, lower house 28 is identical with upper shell 9 structure, is furnished with valve pocket 7, valve rod 6, armature 5, position-arresting ring 8, remaining air gap adjustable ring 12 and rubber buffer pad 27 equally, axial cooled iron core 1 is cylindrical, center, two ends has identical helical spring hole 17, and be provided with concentric ring recesses 18 in the middle of both ends of the surface, make inside and outside formation major-minor magnetic pole, annular groove 18 axially has at least two through holes 14 (Fig. 5, Fig. 7 a is respectively out the form in holes and 3 holes), through hole 14 cross section is fan-shaped or kidney-shaped, respectively as Fig. 7 a, shown in Fig. 7 b, and be distributed in annular groove 18 center circumferential, the radial cooling liquid outlet 16 simultaneously opening respective through hole number to center in iron mandrel communicates with through hole 14, core portion between adjacent two through hole forms coil inner core 15, radial coil 2 is wound on coil inner core 15, and the height of coil is no more than the degree of depth of annular groove 18, leaves louvre 3 between adjacent two coils, coil surface scribble resin or other insulation heat proof material with retarder and cooling fluid, axial cooled iron core 1 is arranged in the iron core hole 19 of upper-lower casing, armature back-moving spring 4 is arranged in the spring eye 17 of axial cooled iron core 1, upper-lower casing is bolted, but upper-lower casing opposing end surface does not contact, leave annular groove 13 and communicate with the cooling liquid outlet 16 of axial cooled iron core 1.
Composition graphs 1, Fig. 8, Fig. 9, Figure 10, Figure 11, Figure 12 a and Figure 12 b, the second execution mode of axially cooling radial transmission line ring type parallel circuits electromagnet of the present utility model is the axial cooled iron core 1 changed in the first execution mode, annular groove 18 is axially had at least two through holes 14 to become and at least have two scalloped recess 22 on iron core surface, Figure 12 a, Figure 12 b are respectively the form having two scalloped recess 22 and 3 scalloped recess 22, scalloped recess 22 is distributed on iron core circumferentially, and scalloped recess 22 internal diameter is less than or equal to annular groove 18 internal diameter.Core portion between adjacent two scalloped recess 22 forms coil inner core 15, radial coil 2 is wound on coil inner core 15, the height of coil is no more than the degree of depth of annular groove, radiating groove 29 is left between adjacent two coils, coil surface scribbles resin or other insulation heat proof materials are isolated, and annular groove 13 communicates with the radiating groove 29 of axial cooled iron core 1.Greatly can save core material like this, increase the contact area with cooling fluid simultaneously, enhance heat radiation, reduced by the liquid compressed between armature and iron core in addition, armature surface hydraulic coupling is reduced, and damping force reduces, and contributes to the dynamic responding speed improving electromagnet.
Figure 13 shows the excitation principle of axially cooling radial transmission line ring type parallel circuits electromagnet, traditional single multiturn coil is become multiple radial coil 2 by it, dispersed placement, reduce the inductance of coil, effectively can improve the rate of climb and the rate of decay of electric current in each coil, accelerate the response speed of electromagnet, when radial coil 2 is energized, its magnetic flux Φ 1 produced is through coil inner core 15, secondary magnetic pole 23, outer working gas gap 24, armature 5, interior working gas gap 25, main pole 26 arrives coil inner core 15 again and closes, produce magnetic flux Φ 2 simultaneously, because structure is symmetrical up and down, what form is parallel circuits, therefore magnetic flux Φ 1 is equal with Φ 2, make axial cooled iron core 1 produce the contrary electromagnetic attraction in equal and opposite in direction direction to upper and lower two armature simultaneously, Synchronization Control two armature, when electromagnetic attraction is greater than resistance suffered by armature, armature starts to move towards iron core, until arrive maximum displacement place, again because the valve action of two armature controls is in same control chamber, when ensureing that armature lift is identical, compare and traditional single armature structure electromagnet, it controls flow increases greatly, the pressure energy of control chamber is unloaded rapidly, when radial coil 2 power-off, magnetic flux Φ 1 and Φ 2 disappear simultaneously, and two armature are no longer attracted by iron core, reset under the effect of back-moving spring.
Two armature are in attracting process, it is in fuel oil (being simultaneously above-mentioned cooling fluid) environment always, fuel oil between armature and iron core is squeezed, and iron core has louvre 3 or radiating groove 29, extruded fuel oil can be got rid of from louvre 3 or radiating groove 29, reduce armature surface hydraulic coupling, reduce damping force suffered by it, improve electromagnet dynamic responding speed, armature chamber's cooling liquid inlet 11 simultaneously, radiating groove 29 (or louvre 3 and radial cooling liquid outlet 16), annular groove 13 forms core interior cooling circuit, the heat convection of core interior axis is achieved, coil and iron core obtain good cooling, ensure that the magnetic property that the electric conductivity that coil is good and security reliability and core material are good, when armature arrives maximum displacement, position-arresting ring 8 and rubber buffer pad 27 collide, because rubber buffer pad 27 is elastomeric material, there is good damping, buffering performance, so bounce-back when can reduce armature adhesive and reduce the damaged condition that position-arresting ring 8 causes because of frequent impact, two armature are placed in again in armature chamber, avoid the direct impact of highly pressurised liquid when valve is opened, and are conducive to the stable of armature state.
Axially cooling radial transmission line ring type parallel circuits electromagnet of the present utility model comprises axial cooled iron core, radial coil, armature, armature back-moving spring, valve rod, valve pocket, position-arresting ring, rubber buffer pad, upper shell, lower house and remaining air gap adjustable ring.Upper shell is square, end face has four bolt holes, center is provided with iron core hole and armature chamber successively, remaining air gap adjustable ring is placed in bottom iron core hole, bottom centre of armature chamber has a valve pocket hole, embedded valve pocket, housing side is provided with armature chamber's cooling liquid inlet in addition, valve rod is fixedly connected with armature, through the valve pocket of housing, arranges with armature chamber, valve pocket and valve rod are a coupling part, position-arresting ring passed through to win cooperation or be threaded to be fixed on the relevant position of valve rod, and it is peripheral that rubber buffer pad sticks in upper shell valve pocket, relative with position-arresting ring, lower house is identical with upper shell structure, is furnished with valve pocket, valve rod, armature, position-arresting ring and remaining air gap adjustable ring equally, axial cooled iron core is cylindrical, center, two ends has identical helical spring hole, and be provided with concentric ring recesses in the middle of both ends of the surface, make inside and outside formation major-minor magnetic pole, annular groove axially has at least two through holes, through hole cross section is fan-shaped or kidney-shaped, and be distributed in annular groove center circumferential, the radial cooling liquid outlet simultaneously opening respective through hole number to center in iron mandrel communicates with through hole, or at least have two scalloped recess on iron core surface, scalloped recess is distributed on iron core circumferentially, scalloped recess internal diameter is less than or equal to annular groove internal diameter, core portion between adjacent two through hole or two scalloped recess forms coil inner core, radial coil winding is in coil on core, and the height of coil is no more than the degree of depth of annular groove, leaves louvre or groove between adjacent two coils, and coil surface scribbles resin or other insulation heat proof materials with retarder and cooling fluid, axial cooled iron core is arranged in the iron core hole of upper-lower casing, armature back-moving spring is arranged in the spring eye of axial cooled iron core, upper-lower casing is bolted, but upper-lower casing opposing end surface does not contact, the cooling liquid outlet or the radiating groove that leave annular groove and axial cooled iron core communicate.
The utility model comprises axial cooled iron core, radial coil, armature, armature back-moving spring, valve rod, valve pocket, position-arresting ring, rubber buffer pad, upper shell, lower house and remaining air gap adjustable ring, upper shell is square, end face has four bolt holes, center is provided with iron core hole and armature chamber successively, remaining air gap adjustable ring is placed in bottom iron core hole, bottom centre of armature chamber has a valve pocket hole, embedded valve pocket, housing side is provided with armature chamber's cooling liquid inlet in addition, valve rod is fixedly connected with armature, through the valve pocket of housing, arrange with armature chamber, position-arresting ring passed through to win cooperation or be threaded to be fixed on the relevant position of valve rod, it is peripheral that rubber buffer pad sticks in upper shell valve pocket, relative with position-arresting ring, lower house is identical with upper shell structure, is furnished with valve pocket, valve rod, armature, position-arresting ring and remaining air gap adjustable ring equally, axial cooled iron core is cylindrical, center, two ends has identical helical spring hole, and be provided with concentric ring recesses in the middle of both ends of the surface, make inside and outside formation major-minor magnetic pole, annular groove axially has at least two through holes, and be distributed in annular groove center circumferential, the radial cooling liquid outlet simultaneously opening respective through hole number to center in iron mandrel communicates with through hole, or at least have two scalloped recess on iron core surface, scalloped recess is distributed on iron core circumferentially, scalloped recess internal diameter is less than or equal to annular groove internal diameter, core portion between adjacent two through hole or two scalloped recess forms coil inner core, radial coil winding is in coil on core, and the height of coil is no more than the degree of depth of annular groove, leaves louvre or groove between adjacent two coils, and coil surface scribbles resin or other insulation heat proof materials with retarder and cooling fluid, axial cooled iron core is arranged in the iron core hole of upper-lower casing, armature back-moving spring is arranged in the spring eye of axial cooled iron core, upper-lower casing is bolted, but upper-lower casing opposing end surface does not contact, the cooling liquid outlet or the radiating groove that leave annular groove and axial cooled iron core communicate.
Valve pocket and valve rod are a coupling part.
Through hole cross section is fan-shaped or kidney-shaped.
Claims (5)
1. axially cool radial transmission line ring type parallel circuits electromagnet, it is characterized in that: comprise the first half, lower part, axial cooled iron core;
The first half comprises housing, valve rod, armature, armature back-moving spring, armature chamber and iron core hole is set gradually in housing, the end face of housing inwardly offers valve pocket hole, valve pocket hole is adjacent with armature chamber, valve rod is through valve pocket hole, its end stretches in armature chamber, and the end of armature and valve rod fixes, and the sidewall of housing is offered the armature chamber's cooling liquid inlet communicated with armature chamber; The latter half is identical with the first half structure, is oppositely arranged;
Axial cooled iron core is cylindrical structure, the middle part of upper and lower two end faces of cylinder all arranges spring eye, between spring eye and cylindrical sidewall, annular groove is set, it is coil inner core between the annular groove on two sides, coil inner spindle is to having at least two through holes, cylindrical sidewall has the radial cooling liquid outlet identical with number of openings, the through hole that each radial cooling liquid outlet is corresponding with it communicates, coiling radial coil on coil inner core;
Two end faces up and down of axial cooled iron core are separately positioned in the iron core hole of the first half and the latter half, between the spring eye that the armature back-moving spring of the first half is arranged on axial cooled iron core upper surface and the armature of the first half, between the spring eye that the armature back-moving spring of the latter half is arranged on axial cooled iron core lower surface and the armature of the latter half; Be bolted between the housing of the first half and the housing of the latter half, and between the housing of the first half and the housing of the latter half, leave the annular groove communicated with radial cooling liquid outlet.
2. axially cooling radial transmission line ring type parallel circuits electromagnet according to claim 1, is characterized in that: the cross section of through hole is fan-shaped or kidney-shaped, and the height of coil is no more than the degree of depth of annular groove, leaves louvre between adjacent windings.
3. axially cool radial transmission line ring type parallel circuits electromagnet, it is characterized in that: comprise the first half, lower part, axial cooled iron core;
The first half comprises housing, valve rod, armature, armature back-moving spring, armature chamber and iron core hole is set gradually in housing, the end face of housing inwardly offers valve pocket hole, valve pocket hole is connected with armature chamber, valve rod is through valve pocket hole, its end stretches in armature chamber, and the armature chamber's cooling liquid inlet communicated with armature chamber, to fixing, the sidewall of housing is offered in the end of armature and valve rod; The latter half is identical with the first half structure, is oppositely arranged;
Axial cooled iron core is the cylindrical structure that sidewall has scalloped recess, the middle part of upper and lower two end faces of cylinder all arranges spring eye, between spring eye and cylindrical sidewall, annular groove is set, it is coil inner core between the annular groove on two sides, scalloped recess opens in coil that core is axially, described scalloped recess has two at least, coiling radial coil on coil inner core;
Two end faces up and down of axial cooled iron core are separately positioned in the iron core hole of the first half and the latter half, between the spring eye that the armature back-moving spring of the first half is arranged on axial cooled iron core upper surface and the armature of the first half, between the spring eye that the armature back-moving spring of the latter half is arranged on axial cooled iron core lower surface and the armature of the latter half;
Be bolted between the housing of the first half and the housing of the latter half, and leave annular groove between the housing of the first half and the housing of the latter half.
4. axially cooling radial transmission line ring type parallel circuits electromagnet according to claim 3, it is characterized in that: scalloped recess internal diameter is less than or equal to annular groove internal diameter, the height of coil is no more than the degree of depth of annular groove, and leave radiating groove between adjacent two coils, annular groove communicates with radiating groove.
5. according to claim 1-4 arbitrary described axis cooling radial transmission line ring type parallel circuits electromagnet, it is characterized in that: in the valve pocket hole of the first half, valve pocket is installed, stem exterior is set with position-arresting ring, housing end face is installed rubber buffer pad, and rubber buffer pad is positioned at valve pocket periphery.
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN201520433980.4U CN204680498U (en) | 2015-06-23 | 2015-06-23 | Axially cooling radial transmission line ring type parallel circuits electromagnet |
Applications Claiming Priority (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN201520433980.4U CN204680498U (en) | 2015-06-23 | 2015-06-23 | Axially cooling radial transmission line ring type parallel circuits electromagnet |
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| CN204680498U true CN204680498U (en) | 2015-09-30 |
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|---|---|---|---|
| CN201520433980.4U Withdrawn - After Issue CN204680498U (en) | 2015-06-23 | 2015-06-23 | Axially cooling radial transmission line ring type parallel circuits electromagnet |
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Cited By (1)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN104916386A (en) * | 2015-06-23 | 2015-09-16 | 哈尔滨工程大学 | Axial cooling radial coil type parallel magnetic circuit electromagnet |
-
2015
- 2015-06-23 CN CN201520433980.4U patent/CN204680498U/en not_active Withdrawn - After Issue
Cited By (1)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN104916386A (en) * | 2015-06-23 | 2015-09-16 | 哈尔滨工程大学 | Axial cooling radial coil type parallel magnetic circuit electromagnet |
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Legal Events
| Date | Code | Title | Description |
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| C14 | Grant of patent or utility model | ||
| GR01 | Patent grant | ||
| AV01 | Patent right actively abandoned | ||
| AV01 | Patent right actively abandoned |
Granted publication date: 20150930 Effective date of abandoning: 20170524 |