CN106847505A - The preparation method of apparatus for storing electrical energy - Google Patents
The preparation method of apparatus for storing electrical energy Download PDFInfo
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- CN106847505A CN106847505A CN201710037171.5A CN201710037171A CN106847505A CN 106847505 A CN106847505 A CN 106847505A CN 201710037171 A CN201710037171 A CN 201710037171A CN 106847505 A CN106847505 A CN 106847505A
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- H—ELECTRICITY
- H01—ELECTRIC ELEMENTS
- H01G—CAPACITORS; CAPACITORS, RECTIFIERS, DETECTORS, SWITCHING DEVICES, LIGHT-SENSITIVE OR TEMPERATURE-SENSITIVE DEVICES OF THE ELECTROLYTIC TYPE
- H01G4/00—Fixed capacitors; Processes of their manufacture
- H01G4/30—Stacked capacitors
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- H—ELECTRICITY
- H01—ELECTRIC ELEMENTS
- H01G—CAPACITORS; CAPACITORS, RECTIFIERS, DETECTORS, SWITCHING DEVICES, LIGHT-SENSITIVE OR TEMPERATURE-SENSITIVE DEVICES OF THE ELECTROLYTIC TYPE
- H01G4/00—Fixed capacitors; Processes of their manufacture
- H01G4/002—Details
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- H—ELECTRICITY
- H01—ELECTRIC ELEMENTS
- H01G—CAPACITORS; CAPACITORS, RECTIFIERS, DETECTORS, SWITCHING DEVICES, LIGHT-SENSITIVE OR TEMPERATURE-SENSITIVE DEVICES OF THE ELECTROLYTIC TYPE
- H01G4/00—Fixed capacitors; Processes of their manufacture
- H01G4/002—Details
- H01G4/005—Electrodes
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- H—ELECTRICITY
- H01—ELECTRIC ELEMENTS
- H01G—CAPACITORS; CAPACITORS, RECTIFIERS, DETECTORS, SWITCHING DEVICES, LIGHT-SENSITIVE OR TEMPERATURE-SENSITIVE DEVICES OF THE ELECTROLYTIC TYPE
- H01G4/00—Fixed capacitors; Processes of their manufacture
- H01G4/002—Details
- H01G4/228—Terminals
- H01G4/232—Terminals electrically connecting two or more layers of a stacked or rolled capacitor
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- Microelectronics & Electronic Packaging (AREA)
- Fixed Capacitors And Capacitor Manufacturing Machines (AREA)
Abstract
The invention discloses the preparation method of apparatus for storing electrical energy, including：Generate the film of the first electroconductive magnetic layer, the second electroconductive magnetic layer, the first conductive paramagnetic particle layer, dielectric layer, the second conductive paramagnetic particle layer, the 3rd electroconductive magnetic layer and the 4th electroconductive magnetic layer；Surface to the film of each layer is processed to set magnetic polarization direction；Each layer is laminated successively and is compacted form capacity plate antenna according to the structure of capacitor；Capacity plate antenna is cut, and electric installation is set, electric installation is welded on the position that the capacity plate antenna is cut；It is monomer electric capacity that capacity plate antenna is packaged, and monomer electric capacity is encapsulated as into apparatus for storing electrical energy according to default circuit.The beneficial effect of the invention is：The preparation method program is simple, saves cost of manufacture；Obtained apparatus for storing electrical energy capacity is big, and small volume is lightweight, and battery can be replaced to use.
Description
Technical field
The present invention relates to electric energy storage technology field, more particularly to apparatus for storing electrical energy preparation method.
Background technology
The capacity of apparatus for storing electrical energy especially electric capacity, influences execution efficiency and the activity duration of electronics, especially
The big electric capacity substitution battery of development power storage amount, there is the advantage such as lightweight, small volume, pollution-free, can improve people's now
Life.
Giant magnetoresistance effect is a kind of quantum mechanics and condensed state physics phenomenon, and one kind of magnetoresistance can be in magnetic material
Observed in material film layer (several nanometer thickness) structure alternate with nonmagnetic substance.The resistance value of this structural material with it is ferromagnetic
The direction of magnetization of property material film layers is relevant, the resistance value under two-layer magnetic material direction of magnetization reverse situation, hence it is evident that more than magnetic
Resistance value when change direction is identical, resistance amount of varying widely under very weak externally-applied magnetic field.
High efficiency insulation body is done using giant magnetoresistance effect, capacitor is made using magnetic capacitance, included in the structure of magnetic capacitance
Magnetosphere there is south magnetic pole and magnetic north pole, magnetic field intensity is the result of magnetic domain concentrated expression in magnet, Fig. 1 is refer to, in Fig. 1
What is drawn is that reason causes the polarised direction of magnetic domain different because magnetisable material is uneven in magnetic capacitance etc., due to permanent magnet and magnetic
Property material inside magnetic domain skewness, the magnetic domain direction of magnetization is inconsistent, is eventually exhibited as in the magnetic pole normal orientation magnetic line of force not
Uniformly, this inhomogeneities general performance is the magnetic polarization direction of normal direction.Magnetic polarization direction is the knot of numerous magnetic domain concentrated expressions
Really, it should be noted that magnet edges have the magnetic line of force, and this magnetic line of force is closed because of the distribution of magnet inside magnetic domain.
Because the type magnetic capacitor make use of giant magnetoresistance effect, and the pole plate particle characteristic and dielectric layer of electric capacity are thin
Layer, therefore, the capacity of this electric capacity is big, and small volume is lightweight, and battery can be replaced to use in a way, there is actual demand.
The content of the invention
It is an object of the invention to provide the preparation method of apparatus for storing electrical energy.
The technical solution adopted for the present invention to solve the technical problems is：
On the one hand, there is provided a kind of preparation method of apparatus for storing electrical energy, including：
Generate the first electroconductive magnetic layer, the second electroconductive magnetic layer, the first conductive paramagnetic particle layer, dielectric layer, the second conduction
The film of paramagnetic particle layer, the 3rd electroconductive magnetic layer and the 4th electroconductive magnetic layer；
To first electroconductive magnetic layer, the second electroconductive magnetic layer, the 3rd electroconductive magnetic layer and the 4th electroconductive magnetic layer
The surface of film is processed to set magnetic polarization direction；
According to the structure of capacitor successively to first electroconductive magnetic layer, the second electroconductive magnetic layer, the first conductive paramagnetic
Stratum granulosum, dielectric layer, the second conductive paramagnetic particle layer, the 3rd electroconductive magnetic layer and the 4th electroconductive magnetic layer are laminated and are compacted
To form capacity plate antenna；
The capacity plate antenna is cut, and electric installation is set, the electric installation is welded on the flat board electricity
Hold cut position；
It is monomer electric capacity that the capacity plate antenna is packaged, and the monomer electric capacity is encapsulated as into electricity according to default circuit
Can storage device.
In preparation method of the present invention, the first electroconductive magnetic of generation layer, the second electroconductive magnetic layer, first are led
The film of electric paramagnetic particle layer, dielectric layer, the second conductive paramagnetic particle layer, the 3rd electroconductive magnetic layer and the 4th electroconductive magnetic layer,
Including：
First electroconductive magnetic layer, the second electroconductive magnetic layer, the first conductive paramagnetic particle layer, dielectric layer, second are led
Electric paramagnetic particle layer, the 3rd electroconductive magnetic layer and the 4th electroconductive magnetic layer are disposed as thin layer；
The first electroconductive magnetic layer, the second electroconductive magnetic are generated by way of sputter or chemical precipitation or crystal growth
Layer, the first conductive paramagnetic particle layer, dielectric layer, the second conductive paramagnetic particle layer, the 3rd electroconductive magnetic layer and the 4th electroconductive magnetic
The film of layer.
It is described to first electroconductive magnetic layer, the second electroconductive magnetic layer, the 3rd in preparation method of the present invention
The surface of the film of electroconductive magnetic layer and the 4th electroconductive magnetic layer is processed to set magnetic polarization direction, including：
The magnetic polarization direction of first electroconductive magnetic layer and the 4th electroconductive magnetic layer is set to first direction；
The magnetic polarization direction of second electroconductive magnetic layer and the 3rd electroconductive magnetic layer is set to second direction；Its
In, the first direction is mutually perpendicular to the second direction.
In preparation method of the present invention, the first direction is horizontal direction, and the second direction is Vertical Square
To.
It is described by first electroconductive magnetic layer and the 4th electroconductive magnetic layer in preparation method of the present invention
Magnetic polarization direction be set in first direction, by first electroconductive magnetic layer magnetic polarization direction and the 4th conductive magnetism
Property layer magnetic polarization direction be set to identical or rightabout.
The magnetic polarization direction by second electroconductive magnetic layer and the 3rd electroconductive magnetic layer is set to second party
Xiang Zhong, phase is set to by the magnetic polarization direction in the magnetic polarization direction of second electroconductive magnetic layer and the 3rd electroconductive magnetic layer
Same or rightabout.
In preparation method of the present invention, the structure according to capacitor is successively to first electroconductive magnetic
Layer, the second electroconductive magnetic layer, the first conductive paramagnetic particle layer, dielectric layer, the second conductive paramagnetic particle layer, the 3rd electroconductive magnetic layer
And the 4th electroconductive magnetic layer be laminated and be compacted form capacity plate antenna, including：
Stack gradually first electroconductive magnetic layer, the second electroconductive magnetic layer, the first conductive paramagnetic particle layer, dielectric layer,
Second conductive paramagnetic particle layer, the 3rd electroconductive magnetic layer and the 4th electroconductive magnetic layer；
Insulating barrier is arranged at the upper surface of the first electroconductive magnetic layer；
It is compacted the insulating barrier, the first electroconductive magnetic layer, the second electroconductive magnetic layer, the first conductive paramagnetic particle layer, dielectric
Layer, the second conductive paramagnetic particle layer, the 3rd electroconductive magnetic layer and the 4th electroconductive magnetic layer are forming capacity plate antenna.
In preparation method of the present invention, the capacity plate antenna is cut, and electric installation is set, will be described
Electric installation is welded on the position that the capacity plate antenna is cut, including：
The capacity plate antenna is cut to make capacitance module；
Electric installation is set, and the electric installation is led including the first conductive layer, the second conductive layer, the 3rd conductive layer and the 4th
Electric layer；
The electric installation is welded on the position that the capacity plate antenna is cut；Wherein, by first conductive layer and
3rd conductive layer is respectively arranged at the first electroconductive magnetic layer, the second electroconductive magnetic layer and the first conductive paramagnetic particle layer
Both sides；Second conductive layer and the 4th conductive layer are respectively arranged at the described second conductive paramagnetic particle layer, the 3rd
The both sides of electroconductive magnetic layer and the 4th electroconductive magnetic layer.
In preparation method of the present invention, described being packaged to the capacity plate antenna is monomer electric capacity, according to pre-
If circuit the monomer electric capacity is encapsulated as apparatus for storing electrical energy, including：
The m monomer electric capacity is provided, m is the positive integer more than or equal to 2；
When m is equal to 2, the 3rd conductive layer of the 1st monomer electric capacity is connected with the first conductive layer of the 2nd monomer electric capacity,
4th conductive layer of the 1st monomer electric capacity is connected with the second conductive layer of the 2nd monomer electric capacity；
When m is more than 2, the 3rd conductive layer of the 1st monomer electric capacity is connected with the first conductive layer of the 2nd monomer electric capacity,
4th conductive layer of the 1st monomer electric capacity is connected with the second conductive layer of the 2nd monomer electric capacity；I-th the 3rd of monomer electric capacity the
Conductive layer is connected with the first conductive layer of i+1 monomer electric capacity, and i-th the 4th conductive layer of monomer electric capacity is single with i+1
The second conductive layer connection of body capacitance, i-th first conductive layer and the i-th -1 the 3rd conductive layer of monomer electric capacity of monomer electric capacity
Connection, i-th second conductive layer of monomer electric capacity is connected with the 4th conductive layer of the i-th -1 monomer electric capacity；M-th monomer electric capacity
The first conductive layer be connected with the 3rd conductive layer of the m-1 monomer electric capacity, m-th second conductive layer and m- of monomer electric capacity
1 the 4th conductive layer connection of monomer electric capacity；Wherein, i is the positive integer more than 1 and less than m.
On the other hand, there is provided a kind of preparation method of apparatus for storing electrical energy, including：
Generate the first electroconductive magnetic layer, the second electroconductive magnetic layer, the first conductive paramagnetic particle layer, dielectric layer, the second conduction
The film of paramagnetic particle layer and the 3rd electroconductive magnetic layer；
At the surface of the film of first electroconductive magnetic layer, the second electroconductive magnetic layer and the 3rd electroconductive magnetic layer
Manage to set magnetic polarization direction；
According to the structure of capacitor successively to first electroconductive magnetic layer, the second electroconductive magnetic layer, the first conductive paramagnetic
Stratum granulosum, dielectric layer, the second conductive paramagnetic particle layer and the 3rd electroconductive magnetic layer are laminated and are compacted form capacity plate antenna；
The capacity plate antenna is cut, and electric installation is set, the electric installation is welded on the flat board electricity
Hold cut position；
It is monomer electric capacity that the capacity plate antenna is packaged, and the monomer electric capacity is encapsulated as into electricity according to default circuit
Can storage device.
In preparation method of the present invention, described being packaged to the capacity plate antenna is monomer electric capacity, according to pre-
If circuit the monomer electric capacity is encapsulated as monomer electric capacity, including：
The n monomer electric capacity and the 4th electroconductive magnetic layer be provided, the magnetic polarization direction of the 4th electroconductive magnetic layer with
The magnetic polarization direction of the first electroconductive magnetic layer is parallel, and n is the positive integer more than or equal to 2；The electric installation includes the
One conductive layer, the second conductive layer, the 3rd conductive layer and the 4th conductive layer；First conductive layer and the 3rd conductive layer are distinguished
It is arranged at the both sides of the first electroconductive magnetic layer, the second electroconductive magnetic layer and the first conductive paramagnetic particle layer；Described second leads
Electric layer and the 4th conductive layer are respectively arranged at the both sides of the described second conductive paramagnetic particle layer and the 3rd electroconductive magnetic layer；
When n is equal to 2, the 1st the second conductive layer of monomer electric capacity is connected with the first conductive layer of the 2nd monomer electric capacity,
4th conductive layer of the 1st monomer electric capacity is connected with the 3rd conductive layer of the 2nd monomer electric capacity, the 2nd the 3rd of monomer electric capacity the
Electroconductive magnetic layer is connected with the 4th electroconductive magnetic layer；
When n is more than 2, the 1st the second conductive layer of monomer electric capacity is connected with the first conductive layer of the 2nd monomer electric capacity,
4th conductive layer of the 1st monomer electric capacity is connected with the 3rd conductive layer of the 2nd monomer electric capacity；J-th the second of monomer electric capacity
Conductive layer is connected with first conductive layer of+1 monomer electric capacity of jth, j-th the 4th conductive layer of monomer electric capacity and+1 list of jth
Second conductive layer of the 3rd conductive layer connection of body capacitance, j-th first conductive layer of monomer electric capacity and -1 monomer electric capacity of jth
Connection, the 4th conductive layer of -1 monomer electric capacity of j-th the 3rd conductive layer of monomer electric capacity and jth is connected；N-th monomer electric capacity
The first conductive layer be connected with the second conductive layer of (n-1)th monomer electric capacity, the 3rd conductive layer of n-th monomer electric capacity and n-th-
1 the 4th conductive layer connection of monomer electric capacity, n-th the 3rd electroconductive magnetic layer of monomer electric capacity and the 4th electroconductive magnetic layer
Connection；Wherein, j is the positive integer more than 1 and less than n.
The preparation method of apparatus for storing electrical energy disclosed above has the advantages that：Filled by making electrical power storage
Put, the dielectric constant of dielectric medium is increased after its magnetization, the capacitance of the type magnetic capacitance is significantly greatly increased；Apparatus for storing electrical energy capacity
Greatly, small volume, it is lightweight, battery can be replaced to use；Not only program is simple for the preparation method, also saves cost of manufacture.
Brief description of the drawings
Fig. 1 is the pole orientation schematic diagram of permanent magnet and magnetisable material magnetic pole surfaces magnetic domain；
The flow chart of the preparation method of the apparatus for storing electrical energy that Fig. 2 is provided for first embodiment of the invention；
The section of structure of the monomer electric capacity that Fig. 3 is provided for first embodiment of the invention；
The section of structure of the apparatus for storing electrical energy that Fig. 4 is provided for first embodiment of the invention；
The section of structure of the monomer electric capacity that Fig. 5 is provided for second embodiment of the invention；
The section of structure of the apparatus for storing electrical energy that Fig. 6 is provided for second embodiment of the invention；
The section of structure of the apparatus for storing electrical energy that Fig. 7 is provided for third embodiment of the invention；
The electrical block diagram of the apparatus for storing electrical energy that Fig. 8 is provided for third embodiment of the invention.
Specific embodiment
In order to make the purpose , technical scheme and advantage of the present invention be clearer, it is right below in conjunction with drawings and Examples
The present invention is further elaborated.It should be appreciated that specific embodiment described herein is only used to explain the present invention, not
For limiting the present invention.
The invention provides the preparation method of electrical energy storage device 10, it is intended that by making electrical energy storage device
10, the dielectric constant of dielectric medium is increased after its magnetization, the capacitance of the type magnetic capacitance is significantly greatly increased；Apparatus for storing electrical energy capacity
Greatly, small volume, it is lightweight, battery can be replaced to use；Not only program is simple for the preparation method, also saves cost of manufacture.
Referring to Fig. 2, the flow chart of the preparation method of the apparatus for storing electrical energy that Fig. 2 is provided for first embodiment of the invention, bag
Include step S1-S5：
S1, generation the first electroconductive magnetic the 101, second electroconductive magnetic of layer the 102, first conductive paramagnetic particle layer 103, dielectric of layer
The film of the 105, the 3rd electroconductive magnetic of the conductive paramagnetic particle layer layer 106 of layer 104, second and the 4th electroconductive magnetic layer 107；Step S1
Including sub-step S11-S12：
S11, by the conductive paramagnetic particle layer 103 of first electroconductive magnetic the 101, second electroconductive magnetic of layer layer 102, first,
The 105, the 3rd electroconductive magnetic of the conductive paramagnetic particle layer layer 106 of dielectric layer 104, second and the 4th electroconductive magnetic layer 107 are disposed as
Thin layer；
S12, generate by way of sputter or chemical precipitation or crystal growth the first electroconductive magnetic layer 101, second
The conductive paramagnetic particle layer the 105, the 3rd of the conductive paramagnetic particle layer 103, dielectric layer 104, second of electroconductive magnetic layer 102, first is conductive
The film of the electroconductive magnetic of magnetosphere 106 and the 4th layer 107.
Wherein, sputter is commonly referred to as magnetic control sputtering plating, belongs to high-speed low temperature sputtering method.The technological requirement vacuum 1 ×
10-3Torr or so, i.e., 1.3 × 10-3The vacuum state of Pa is filled with inert gas argon gas (Ar), and in plastic rubber substrate (anode) and
High voltage direct current is added between metal targets (negative electrode), because the electron excitation that glow discharge (glow discharge) is produced is lazy
Property gas, produce plasma, the atom of metal targets driven out of, is deposited on plastic rubber substrate by plasma.
Chemical precipitation is generally and adds chemical agent, makes to need the dissolving material of removal to be converted into indissoluble material and separate out in water
Method for treating water.
Crystal growth refer to material under the conditions of uniform temperature, pressure, concentration, medium, pH etc. by gas phase, liquid phase, solid phase
Conversion, forms the process of specific dimension sized crystals.
S2, to first electroconductive magnetic layer the 101, second electroconductive magnetic layer the 102, the 3rd electroconductive magnetic layer 106 and the 4th
The surface of the film of electroconductive magnetic layer 107 is processed to set magnetic polarization direction；The step S2 includes sub-step S21-
S22：
S21, by first electroconductive magnetic layer 101 and the 4th electroconductive magnetic layer 107 magnetic polarization direction be set to
First direction；By the magnetic polarization direction of first electroconductive magnetic layer 101 and the magnetic polarization side of the 4th electroconductive magnetic layer 107
To being set to identical or rightabout.
S22, by second electroconductive magnetic layer 102 and the 3rd electroconductive magnetic layer 106 magnetic polarization direction be set to
Second direction；Wherein, the first direction is mutually perpendicular to the second direction.By the magnetic of second electroconductive magnetic layer 102
The magnetic polarization direction of polarised direction and the 3rd electroconductive magnetic layer 106 is set to identical or rightabout.
Preferably, the first direction is horizontal direction, and the second direction is vertical direction.
S3, the structure of foundation capacitor are successively to first electroconductive magnetic the 101, second electroconductive magnetic of layer layer 102, first
Conductive paramagnetic particle layer 103, dielectric layer 104, second the 105, the 3rd electroconductive magnetic of conductive paramagnetic particle layer layer 106 and the 4th is conductive
Magnetosphere 107 is laminated and is compacted form capacity plate antenna；Step S3 includes sub-step S31-S33：
S31, stack gradually first electroconductive magnetic the 101, second electroconductive magnetic of layer the 102, first conductive paramagnetic particle of layer
Layer 103, dielectric layer 104, second the 105, the 3rd electroconductive magnetic of conductive paramagnetic particle layer layer 106 and the 4th electroconductive magnetic layer 107；
S32, the upper surface that insulating barrier is arranged at the first electroconductive magnetic layer 101；
S33, the compacting insulating barrier 112, the first electroconductive magnetic the 101, second electroconductive magnetic of layer layer 102, first are conductive suitable
Magnetic stratum granulosum 103, dielectric layer 104, second the 105, the 3rd electroconductive magnetic of conductive paramagnetic particle layer layer 106 and the 4th electroconductive magnetic layer
107 forming capacity plate antenna.
S4, the capacity plate antenna is cut, and electric installation is set, the electric installation is welded on the flat board
The position that electric capacity is cut；Step S4 includes sub-step S41-S43：
S41, the capacity plate antenna is cut to make capacitance module；
S42, setting electric installation, the electric installation include that the first conductive layer 108, the second conductive layer the 109, the 3rd are conductive
The conductive layer 111 of layer 110 and the 4th；
S43, the electric installation is welded on the position that the capacity plate antenna is cut；Wherein, it is conductive by described first
Layer 108 and the 3rd conductive layer 110 are respectively arranged at first electroconductive magnetic the 101, second electroconductive magnetic of layer layer 102 and the
The both sides of one conductive paramagnetic particle layer 103；Second conductive layer 109 and the 4th conductive layer 111 are respectively arranged at institute
State the both sides of the second the 105, the 3rd electroconductive magnetic of conductive paramagnetic particle layer layer 106 and the 4th electroconductive magnetic layer 107.
S5, the capacity plate antenna is packaged is monomer electric capacity 100, according to default circuit by the monomer electric capacity
100 are encapsulated as apparatus for storing electrical energy.The monomer electric capacity that the monomer electric capacity is provided referring to Fig. 3, Fig. 3 for first embodiment of the invention
Section of structure, the monomer electric capacity 100 includes the first electroconductive magnetic the 101, second electroconductive magnetic of the layer layer 102, for stacking gradually
One conductive paramagnetic particle layer 103, dielectric layer 104, second the 105, the 3rd electroconductive magnetic of conductive paramagnetic particle layer layer 106 and the 4th is led
Electromagnetically layer 107.It is i.e. internal a total of 7 layers, and the magnetic polarization side of the first electroconductive magnetic layer 101 and the 4th electroconductive magnetic layer 107
To parallel, and the second electroconductive magnetic layer 102 is parallel with the magnetic polarization direction of the 3rd electroconductive magnetic layer 106, and with the first conductive magnetism
Property the electroconductive magnetic layer 107 of layer 101 and the 4th magnetic polarization direction it is vertical, the first conductive paramagnetic particle layer 103 and second is conductive suitable
Paramagnetic metal particle is used in magnetic stratum granulosum 105, beneficial to the surface area for improving magnetic capacitance, simultaneously as the second conductive magnetism
Property the electroconductive magnetic layer 106 of layer 102 and the 3rd magnetic field to the conductive paramagnetic particle layer of the first conductive paramagnetic particle layer 103 and second
105 have magnetization, are contacted with the conductive paramagnetic particle layer 105 of the first conductive paramagnetic particle layer 103 and second in dielectric layer 104
Also can should mutually there be magnetization phenomenon on surface, increased the dielectric constant of dielectric layer 104, so as to increased the appearance of the magnetic capacitor
Amount.
The first electroconductive magnetic layer 101 and the 4th electroconductive magnetic layer 107 are used to constrain electron escape；Described second
Electroconductive magnetic layer 102 and the 3rd electroconductive magnetic layer 106 magnetic polarization direction perpendicular to first electroconductive magnetic layer 101 and
The magnetic polarization direction of the 4th electroconductive magnetic layer 107, the second electroconductive magnetic layer 102 and the 3rd electroconductive magnetic layer
106 capacitances for being used to increase the monomer electric capacity 100；Described first conductive paramagnetic particle layer 103 and the second conductive paramagnetic
Stratum granulosum 105 is used to increase polar plate area to increase the capacitance of the monomer electric capacity 100；The dielectric layer 104 is used to store electricity
Energy；Wherein, the magnetic polarization direction of electroconductive magnetic layer adopts indicated by an arrow in figure, i.e. the first electroconductive magnetic layer 101 and the 4th is led
Electromagnetically the magnetic field intensity of layer 107 is parallel, the second electroconductive magnetic layer 102 and the 3rd electroconductive magnetic layer 106 magnetic polarization direction perpendicular to
107 magnetic polarization direction of first electroconductive magnetic layer 101 and the 4th electroconductive magnetic layer, that is to say, that the first electroconductive magnetic layer 101 and the
Four electroconductive magnetics layer, 107 magnetic polarization direction are parallel, parallel to dielectric layer 104.
The conductive paramagnetic particle layer 105 of first conductive paramagnetic particle layer 103 and second can be by the metal of multilayer paramagnetic material
Particle packing is formed, and because particle is trickle, the surface area of this structure can be significantly greatly increased, thus increases the electric capacity of magnetic capacitance
Amount.Because the first electroconductive magnetic layer 101 is parallel with 107 magnetic polarization direction of the 4th electroconductive magnetic layer, the second electroconductive magnetic 102 He of layer
Hung down with the first electroconductive magnetic layer 101 and 107 magnetic polarization direction of the 4th electroconductive magnetic layer in 3rd electroconductive magnetic, 106 magnetic polarization direction of layer
Directly, and the second electroconductive magnetic layer 102 and the 3rd electroconductive magnetic layer 106 are by respectively to the first conductive paramagnetic particle layer 103 and second
Conductive paramagnetic particle layer 105 is magnetized, and keeps 106 magnetic polarization direction of the second electroconductive magnetic layer 102 and the 3rd electroconductive magnetic layer
It is vertical with the first electroconductive magnetic layer 101 and 107 magnetic polarization direction of the 4th electroconductive magnetic layer, while keeping the first conductive paramagnetic particle
The conductive paramagnetic particle layer 105 of layer 103 and second will not be by the first electroconductive magnetic layer 101 and the 4th electroconductive magnetic 107 strong magnetic of layer
Change.
First electroconductive magnetic layer 101, second electroconductive magnetic layer 102, the 3rd electroconductive magnetic layer 106 and institute
State the 4th electroconductive magnetic layer 107 and be thin magnetic film (material such as iron-based, Ni-based or cobalt-base alloys, thickness is nanoscale).It is described
First conductive paramagnetic particle layer 103 and the second conductive paramagnetic particle layer 105 are respectively provided with paramagnetic metal particle packing structure, i.e.,
The conductive paramagnetic particle layer 105 available (material such as iron-based, Ni-based or cobalt-base alloys) of first conductive paramagnetic particle layer 103 and second is received
It is prepared by nanoscale powder；Dielectric layer 104 can be made up of relative dielectric constant big material such as barium titanate or titanyl compound.
The monomer electric capacity 100 also includes：First conductive layer 108, the second conductive layer 109, the 3rd conductive layer 110 and the 4th
Conductive layer 111；First conductive layer 108 and the 3rd conductive layer 110 are respectively arranged at the first electroconductive magnetic layer
101st, the both sides of the conductive paramagnetic particle layer 103 of the second electroconductive magnetic layer 102 and first；Second conductive layer 109 and described
Four conductive layers 111 are respectively arranged at the described second the 105, the 3rd electroconductive magnetic of conductive paramagnetic particle layer layer 106 and the 4th conductive magnetism
Property layer 107 both sides.First conductive layer 108, second conductive layer 109, the 3rd conductive layer 110 and the described 4th
Conductive layer 111 is thin layer, or first conductive layer 108, second conductive layer 109, the 3rd conductive layer 110 and
4th conductive layer 111 can be made up of silver or Copper thin film.
Preferably, the monomer electric capacity 100 also includes insulating barrier 112, and the insulating barrier 112 is arranged at first conductive magnetism
Property layer 101 upper surface.The purpose of insulating barrier 112 is positive plate and negative plate when preventing monomer electric capacity 100 and system 10 to be superimposed
Contact, is easy to circuit integrated.
Step S5 includes sub-step S51-S53：
S51, m monomer electric capacity of offer, m is the positive integer more than or equal to 2；Referring to Fig. 4, Fig. 4 is the present invention the
The section of structure of the apparatus for storing electrical energy 10 that one embodiment is provided, the apparatus for storing electrical energy 10 is the monomer electricity of first embodiment
Hold 100 corresponding products, the apparatus for storing electrical energy 10 includes m monomer electric capacity 100 as described above, and m is more than or equal to 2
Positive integer.
S52, when m is equal to 2, the of the 3rd conductive layer 110 of the 1st monomer electric capacity 100 and the 2nd monomer electric capacity 100
One conductive layer 108 is connected, the 1st the 4th conductive layer 111 and the 2nd the second conductive layer of monomer electric capacity 100 of monomer electric capacity 100
109 connections；
S53, when m is more than 2, the of the 3rd conductive layer 110 of the 1st monomer electric capacity 100 and the 2nd monomer electric capacity 100
One conductive layer 108 is connected, the 1st the 4th conductive layer 111 and the 2nd the second conductive layer of monomer electric capacity 100 of monomer electric capacity 100
109 connections；I-th the 3rd conductive layer 110 of monomer electric capacity 100 connects with the first conductive layer 108 of i+1 monomer electric capacity 100
Connect, i-th the 4th conductive layer 111 of monomer electric capacity 100 is connected with the second conductive layer 109 of i+1 monomer electric capacity 100, i-th
First conductive layer 108 of individual monomer electric capacity 100 is connected with the 3rd conductive layer 110 of the i-th -1 monomer electric capacity 100, i-th monomer
Second conductive layer 109 of electric capacity 100 is connected with the 4th conductive layer 111 of the i-th -1 monomer electric capacity 100；M-th monomer electric capacity
100 the first conductive layer 108 is connected with the 3rd conductive layer 110 of the m-1 monomer electric capacity 100, m-th monomer electric capacity 100
Second conductive layer 109 is connected with the 4th conductive layer 111 of the m-1 monomer electric capacity 100；Wherein, i be more than 1 and less than m just
Integer.
The preparation method of the apparatus for storing electrical energy of second embodiment of the invention includes step S101-S105：
S101, the 102, first conductive paramagnetic particle layer 103 of generation the first electroconductive magnetic the 101, second electroconductive magnetic of layer layer, it is situated between
The film of the conductive paramagnetic particle layer 105 of electric layer 104, second and the 3rd electroconductive magnetic layer 106；Step S101 is walked with first embodiment
The sub-step of rapid S1 is identical.
S102, to first electroconductive magnetic layer the 101, second electroconductive magnetic layer 102 and the 3rd electroconductive magnetic layer 106 it is thin
The surface of film is processed to set magnetic polarization direction；Step S102 is identical with the sub-step of first embodiment step S2.
S103, according to the structure of capacitor successively to first electroconductive magnetic the 101, second electroconductive magnetic of layer layer 102, the
The one conductive conductive paramagnetic particle layer 105 of paramagnetic particle layer 103, dielectric layer 104, second and the 3rd electroconductive magnetic layer 106 carry out layer
Fold and be compacted to form capacity plate antenna；Step S103 is identical with the sub-step of first embodiment step S3.
S104, the capacity plate antenna is cut, and electric installation is set, the electric installation is welded on described flat
The position that plate electric capacity is cut；Step S104 is identical with the sub-step of first embodiment step S4.
S105, the capacity plate antenna is packaged is monomer electric capacity 100, according to default circuit by the monomer electric capacity
100 are encapsulated as apparatus for storing electrical energy 10.Referring to Fig. 5, the structure of the monomer electric capacity 100 that Fig. 5 is provided for second embodiment of the invention
Profile, it is have 6 layers inside the monomer electric capacity 100 that the monomer electric capacity 100 is different from first embodiment part, including successively
The conductive paramagnetic particle layer 103, dielectric layer 104 of first electroconductive magnetic the 101, second electroconductive magnetic of layer layer 102, first of stacking, the
Two conductive paramagnetic particle layers 105 and the 3rd electroconductive magnetic layer 106；
The first electroconductive magnetic layer 101 is used to constrain electron escape；The second electroconductive magnetic layer 102 and the described 3rd
The magnetic polarization direction of electroconductive magnetic layer 106 is perpendicular to the magnetic polarization direction of first electroconductive magnetic layer 101, and described second is conductive
Magnetosphere 102 and the 3rd electroconductive magnetic layer 106 are used to increase the capacitance of the monomer electric capacity 100；Described first is conductive suitable
Magnetic stratum granulosum 103 and the second conductive paramagnetic particle layer 105 are used to increase polar plate area to increase the electricity of the monomer electric capacity 100
Capacity；The dielectric layer 104 is used to store electric energy；
The monomer electric capacity 100 also includes：First conductive layer 108, the second conductive layer 109, the 3rd conductive layer 110 and the 4th
Conductive layer 111；
First conductive layer 108 and the 3rd conductive layer 110 be respectively arranged at first electroconductive magnetic layer 101,
The both sides of the conductive paramagnetic particle layer 103 of the second electroconductive magnetic layer 102 and first；Second conductive layer 109 and the described 4th lead
Electric layer 111 is respectively arranged at the both sides of the described second conductive paramagnetic particle layer 105 and the 3rd electroconductive magnetic layer 106.
Step S105 includes sub-step S1051-S1053：
S1051, the n electroconductive magnetic of the monomer electric capacity 100 and the 4th layer 107 of offer, the 4th electroconductive magnetic layer 107
Magnetic polarization direction and first electroconductive magnetic layer 101 magnetic polarization direction it is parallel, n is the positive integer more than or equal to 2；Institute
Stating electric installation includes the first conductive layer 108, the second conductive layer 109, the 3rd conductive layer 110 and the 4th conductive layer 111；Described
One conductive layer 108 and the 3rd conductive layer 110 are respectively arranged at the first electroconductive magnetic layer the 101, second electroconductive magnetic layer
102 and first conductive paramagnetic particle layer 103 both sides；Second conductive layer 109 and the 4th conductive layer 111 are respectively provided with
In the described second conductive paramagnetic particle layer 105 and the both sides of the 3rd electroconductive magnetic layer 106；Referring to Fig. 6, Fig. 6 is the present invention second
The section of structure of the apparatus for storing electrical energy 10 that embodiment is provided, the apparatus for storing electrical energy 10 is the monomer electric capacity of second embodiment
100 corresponding system products, it includes n monomer electric capacity 100 as described above and the 4th electroconductive magnetic layer 107, the described 4th
The magnetic polarization direction of magnetic polarization direction and first electroconductive magnetic layer 101 of electroconductive magnetic layer 107 is parallel, n be more than or wait
In 2 positive integer.
S1052, when n is equal to 2, the second conductive layer 109 of the 1st monomer electric capacity 100 and the 2nd monomer electric capacity 100
First conductive layer 108 is connected, the 4th conductive layer 111 of the 1st monomer electric capacity 100 and the 2nd it is the 3rd of monomer electric capacity 100 the conductive
Layer 110 is connected, and the 3rd electroconductive magnetic layer 106 of the 2nd monomer electric capacity 100 is connected with the 4th electroconductive magnetic layer 107；
S1053, when n is more than 2, the second conductive layer 109 of the 1st monomer electric capacity 100 and the 2nd monomer electric capacity 100
First conductive layer 108 is connected, the 4th conductive layer 111 of the 1st monomer electric capacity 100 and the 2nd it is the 3rd of monomer electric capacity 100 the conductive
Layer 110 is connected；Second conductive layer 109 of j-th monomer electric capacity 100 and first conductive layer 108 of+1 monomer electric capacity 100 of jth
Connection, the 3rd conductive layer 110 of+1 monomer electric capacity 100 of j-th the 4th conductive layer 111 of monomer electric capacity 100 and jth is connected,
Second conductive layer 109 of -1 monomer electric capacity 100 of j-th first conductive layer 108 of monomer electric capacity 100 and jth is connected, j-th
4th conductive layer 111 of -1 monomer electric capacity 100 of the 3rd conductive layer 110 and jth of monomer electric capacity 100 is connected；N-th monomer electricity
The first conductive layer 108 for holding 100 is connected with the second conductive layer 109 of (n-1)th monomer electric capacity 100, n-th monomer electric capacity 100
The 3rd conductive layer 110 be connected with the 4th conductive layer 111 of (n-1)th monomer electric capacity 100, n-th the 3rd of monomer electric capacity 100 the
Electroconductive magnetic layer 106 is connected with the 4th electroconductive magnetic layer 107；Wherein, j is the positive integer more than 1 and less than n.
Referring to Fig. 7, the section of structure of the apparatus for storing electrical energy 10 that Fig. 7 is provided for third embodiment of the invention, the implementation
The combination and superposition of the apparatus for storing electrical energy 10 that example is provided for first embodiment and second embodiment.
Referring to Fig. 8, the structural representation of circuit 200 of the apparatus for storing electrical energy 10 that Fig. 8 is provided for third embodiment of the invention.
Because each monomer electric capacity 100 is the type magnetic capacitance, n parallel branch, longitudinal m electricity are constituted in horizontal n electric capacity
Hold and constitute m parallel branch, and be connected to positive electrode 201 and negative electrode 202.
There is provided herein the various operations of embodiment.In one embodiment, described one or operation may be constructed one
The computer-readable instruction stored on individual or computer-readable medium, it will be so that computing device be held when being performed by electronic equipment
The row operation.Describing the order of some or all of operations, to should not be construed as to imply that these operations necessarily order dependent
's.It will be appreciated by those skilled in the art that the alternative sequence of the benefit with this specification.Furthermore, it is to be understood that not being institute
Having operation must exist in each embodiment provided in this article.
And, word " preferred " used herein means serving as example, example or illustration.Feng Wen is described as " preferably
" any aspect or design be not necessarily to be construed as than other aspect or design it is more favourable.Conversely, the use purport of word " preferred "
Concept is being proposed in a concrete fashion.Term "or" as used in this application is intended to mean the "or" for including and non-excluded
"or".I.e., unless otherwise or clear from the context, " X uses A or B " means that nature includes any one of arrangement.
That is, if X uses A；X uses B；Or X uses A and B both, then " X uses A or B " is met in foregoing any example.
And, although the disclosure, people in the art has shown and described relative to one or implementation
Member will appreciate that equivalent variations and modification based on the reading and understanding to the specification and drawings.The disclosure includes all such
Modification and modification, and be limited only by the scope of the following claims.Held particularly with by said modules (such as element etc.)
Capable various functions, the term for describing such component be intended to correspond to the specified function of performing the component (for example its
Functionally of equal value) random component (unless otherwise instructed), even if in structure with perform the disclosure shown in this article
Exemplary implementations in function open structure it is not equivalent.Although additionally, the special characteristic of the disclosure relative to
Only one in some implementations is disclosed, but this feature can with can be such as the phase for given or application-specific
Hope one or other combinations of features with other favourable implementations.And, with regard to term " including ", " having ", " containing " or
For its deformation is used in specific embodiment or claim, such term is intended to the side similar to term "comprising"
Formula includes.
Each functional unit in the embodiment of the present invention can be integrated in a processing module, or unit list
Solely it is physically present, it is also possible to which multiple or multiple above units are integrated in a module.Above-mentioned integrated module can both be used
The form of hardware is realized, it would however also be possible to employ the form of software function module is realized.If the integrated module is with software function
The form of module is realized and as independent production marketing or when using, it is also possible to which storage is situated between in an embodied on computer readable storage
In matter.Storage medium mentioned above can be read-only storage, disk or CD etc..Above-mentioned each device or system, can be with
Perform the storage method in correlation method embodiment.
In sum, although the present invention it is disclosed above with preferred embodiment, but above preferred embodiment and be not used to limit
The system present invention, one of ordinary skill in the art without departing from the spirit and scope of the present invention, can make various changes and profit
Adorn, therefore protection scope of the present invention is defined by the scope that claim is defined.
Claims (10)
1. a kind of preparation method of apparatus for storing electrical energy, it is characterised in that including：
Generate the first electroconductive magnetic layer, the second electroconductive magnetic layer, the first conductive paramagnetic particle layer, dielectric layer, the second conductive paramagnetic
The film of stratum granulosum, the 3rd electroconductive magnetic layer and the 4th electroconductive magnetic layer；
To the film of first electroconductive magnetic layer, the second electroconductive magnetic layer, the 3rd electroconductive magnetic layer and the 4th electroconductive magnetic layer
Surface processed to set magnetic polarization direction；
According to the structure of capacitor successively to first electroconductive magnetic layer, the second electroconductive magnetic layer, the first conductive paramagnetic particle
Layer, dielectric layer, the second conductive paramagnetic particle layer, the 3rd electroconductive magnetic layer and the 4th electroconductive magnetic layer are laminated and are compacted with shape
Into capacity plate antenna；
The capacity plate antenna is cut, and electric installation is set, the electric installation is welded on the capacity plate antenna institute
The position of cutting；
It is monomer electric capacity that the capacity plate antenna is packaged, and the monomer electric capacity is encapsulated as into electric energy according to default circuit stores up
Cryopreservation device.
2. preparation method according to claim 1, it is characterised in that the electroconductive magnetic of the generation first layer, second conductive
Magnetosphere, the first conductive paramagnetic particle layer, dielectric layer, the second conductive paramagnetic particle layer, the 3rd electroconductive magnetic layer and the 4th are conductive
Magnetospheric film, including：
First electroconductive magnetic layer, the second electroconductive magnetic layer, the first conductive paramagnetic particle layer, dielectric layer, the second conduction is suitable
Magnetic stratum granulosum, the 3rd electroconductive magnetic layer and the 4th electroconductive magnetic layer are disposed as thin layer；
Generated by way of sputter or chemical precipitation or crystal growth first electroconductive magnetic layer, the second electroconductive magnetic layer,
First conductive paramagnetic particle layer, dielectric layer, the second conductive paramagnetic particle layer, the 3rd electroconductive magnetic layer and the 4th electroconductive magnetic layer
Film.
3. preparation method according to claim 1, it is characterised in that described to be led to first electroconductive magnetic layer, second
Electromagnetically the surface of the film of layer, the 3rd electroconductive magnetic layer and the 4th electroconductive magnetic layer is processed to set magnetic polarization direction,
Including：
The magnetic polarization direction of first electroconductive magnetic layer and the 4th electroconductive magnetic layer is set to first direction；
The magnetic polarization direction of second electroconductive magnetic layer and the 3rd electroconductive magnetic layer is set to second direction；Wherein,
The first direction is mutually perpendicular to the second direction.
4. preparation method according to claim 3, it is characterised in that the first direction is horizontal direction, described second
Direction is vertical direction.
5. preparation method according to claim 3, it is characterised in that described by first electroconductive magnetic layer and described the
The magnetic polarization direction of four electroconductive magnetics layer is set in first direction, by the magnetic polarization direction of first electroconductive magnetic layer and institute
The magnetic polarization direction for stating the 4th electroconductive magnetic layer is set to identical or rightabout.
The magnetic polarization direction by second electroconductive magnetic layer and the 3rd electroconductive magnetic layer is set in second direction,
By second electroconductive magnetic layer magnetic polarization direction and the 3rd electroconductive magnetic layer magnetic polarization direction be set to it is identical or
Rightabout.
6. preparation method according to claim 1, it is characterised in that the structure according to capacitor is successively to described the
One electroconductive magnetic layer, the second electroconductive magnetic layer, the first conductive paramagnetic particle layer, dielectric layer, the second conductive paramagnetic particle layer, the 3rd
Electroconductive magnetic layer and the 4th electroconductive magnetic layer are laminated and are compacted form capacity plate antenna, including：
Stack gradually the first electroconductive magnetic layer, the second electroconductive magnetic layer, the first conductive paramagnetic particle layer, dielectric layer, second
Conductive paramagnetic particle layer, the 3rd electroconductive magnetic layer and the 4th electroconductive magnetic layer；
Insulating barrier is arranged at the upper surface of the first electroconductive magnetic layer；
It is compacted the insulating barrier, the first electroconductive magnetic layer, the second electroconductive magnetic layer, the first conductive paramagnetic particle layer, dielectric layer, the
Two conductive paramagnetic particles layers, the 3rd electroconductive magnetic layer and the 4th electroconductive magnetic layer are forming capacity plate antenna.
7. preparation method according to claim 1, it is characterised in that cut to the capacity plate antenna, and setting leads
Electric installation, the position that the capacity plate antenna is cut is welded on by the electric installation, including：
The capacity plate antenna is cut to make capacitance module；
Electric installation is set, and the electric installation includes that the first conductive layer, the second conductive layer, the 3rd conductive layer and the 4th are conductive
Layer；
The electric installation is welded on the position that the capacity plate antenna is cut；Wherein, by first conductive layer and described
3rd conductive layer is respectively arranged at the two of the first electroconductive magnetic layer, the second electroconductive magnetic layer and the first conductive paramagnetic particle layer
Side；Second conductive layer and the 4th conductive layer are respectively arranged at the described second conductive paramagnetic particle layer, the 3rd conduction
The both sides of magnetosphere and the 4th electroconductive magnetic layer.
8. preparation method according to claim 7, it is characterised in that described being packaged to the capacity plate antenna is monomer
Electric capacity, apparatus for storing electrical energy is encapsulated as according to default circuit by the monomer electric capacity, including：
The m monomer electric capacity is provided, m is the positive integer more than or equal to 2；
When m is equal to 2, the 3rd conductive layer of the 1st monomer electric capacity is connected with the first conductive layer of the 2nd monomer electric capacity, the 1st
4th conductive layer of monomer electric capacity is connected with the second conductive layer of the 2nd monomer electric capacity；
When m is more than 2, the 3rd conductive layer of the 1st monomer electric capacity is connected with the first conductive layer of the 2nd monomer electric capacity, the 1st
4th conductive layer of monomer electric capacity is connected with the second conductive layer of the 2nd monomer electric capacity；I-th the 3rd conductive layer of monomer electric capacity
The first conductive layer with i+1 monomer electric capacity is connected, i-th the 4th conductive layer of monomer electric capacity and i+1 monomer electric capacity
The connection of the second conductive layer, i-th first conductive layer of monomer electric capacity be connected with the 3rd conductive layer of the i-th -1 monomer electric capacity,
I-th second conductive layer of monomer electric capacity is connected with the 4th conductive layer of the i-th -1 monomer electric capacity；M-th the of monomer electric capacity
One conductive layer is connected with the 3rd conductive layer of the m-1 monomer electric capacity, m-th second conductive layer and m-1 of monomer electric capacity
The 4th conductive layer connection of monomer electric capacity；Wherein, i is the positive integer more than 1 and less than m.
9. a kind of preparation method of apparatus for storing electrical energy, it is characterised in that including：
Generate the first electroconductive magnetic layer, the second electroconductive magnetic layer, the first conductive paramagnetic particle layer, dielectric layer, the second conductive paramagnetic
The film of stratum granulosum and the 3rd electroconductive magnetic layer；
To first electroconductive magnetic layer, the second electroconductive magnetic layer and the 3rd electroconductive magnetic layer film surface processed with
Magnetic polarization direction is set；
According to the structure of capacitor successively to first electroconductive magnetic layer, the second electroconductive magnetic layer, the first conductive paramagnetic particle
Layer, dielectric layer, the second conductive paramagnetic particle layer and the 3rd electroconductive magnetic layer are laminated and are compacted form capacity plate antenna；
The capacity plate antenna is cut, and electric installation is set, the electric installation is welded on the capacity plate antenna institute
The position of cutting；
It is monomer electric capacity that the capacity plate antenna is packaged, and the monomer electric capacity is encapsulated as into electric energy according to default circuit stores up
Cryopreservation device.
10. preparation method according to claim 9, it is characterised in that described being packaged to the capacity plate antenna is list
Body capacitance, monomer electric capacity is encapsulated as according to default circuit by the monomer electric capacity, including：
The n monomer electric capacity and the 4th electroconductive magnetic layer be provided, the magnetic polarization direction of the 4th electroconductive magnetic layer with it is described
The magnetic polarization direction of the first electroconductive magnetic layer is parallel, and n is the positive integer more than or equal to 2；The electric installation is led including first
Electric layer, the second conductive layer, the 3rd conductive layer and the 4th conductive layer；First conductive layer and the 3rd conductive layer are respectively provided with
In the both sides of first electroconductive magnetic layer, the second electroconductive magnetic layer and the first conductive paramagnetic particle layer；Second conductive layer
And the 4th conductive layer is respectively arranged at the both sides of the described second conductive paramagnetic particle layer and the 3rd electroconductive magnetic layer；
When n is equal to 2, the 1st the second conductive layer of monomer electric capacity is connected with the first conductive layer of the 2nd monomer electric capacity, the 1st
4th conductive layer of monomer electric capacity is connected with the 3rd conductive layer of the 2nd monomer electric capacity, the 2nd the 3rd conductive magnetism of monomer electric capacity
Property layer with the 4th electroconductive magnetic layer be connected；
When n is more than 2, the 1st the second conductive layer of monomer electric capacity is connected with the first conductive layer of the 2nd monomer electric capacity, the 1st
4th conductive layer of monomer electric capacity is connected with the 3rd conductive layer of the 2nd monomer electric capacity；J-th second conductive layer of monomer electric capacity
The first conductive layer with+1 monomer electric capacity of jth is connected, j-th the 4th conductive layer of monomer electric capacity and+1 monomer electric capacity of jth
The connection of the 3rd conductive layer, second conductive layer of -1 monomer electric capacity of j-th first conductive layer of monomer electric capacity and jth is connected,
4th conductive layer of -1 monomer electric capacity of j-th the 3rd conductive layer of monomer electric capacity and jth is connected；N-th the of monomer electric capacity
One conductive layer is connected with the second conductive layer of (n-1)th monomer electric capacity, the 3rd conductive layer of n-th monomer electric capacity and (n-1)th
The 4th conductive layer connection of monomer electric capacity, n-th the 3rd electroconductive magnetic layer of monomer electric capacity is with the 4th electroconductive magnetic layer even
Connect；Wherein, j is the positive integer more than 1 and less than n.
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| WO2019014947A1 (en) * | 2017-07-21 | 2019-01-24 | 深圳市柔宇科技有限公司 | Mask manufacturing method and mask |
| CN115548564A (en) * | 2022-11-30 | 2022-12-30 | 国能世界(北京)科技有限公司 | Quantum chip battery energy storage module |
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| CN101557125A (en) * | 2008-04-11 | 2009-10-14 | 北极光股份有限公司 | Apparatus for storing electrical energy |
| JP2010199579A (en) * | 2009-02-24 | 2010-09-09 | Lite-On Capital Inc | Magnetic capacitor |
| CN102683007A (en) * | 2011-03-07 | 2012-09-19 | 詹前疆 | Storage element |
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| CN101557125A (en) * | 2008-04-11 | 2009-10-14 | 北极光股份有限公司 | Apparatus for storing electrical energy |
| JP2010199579A (en) * | 2009-02-24 | 2010-09-09 | Lite-On Capital Inc | Magnetic capacitor |
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