555results about How to "Reduced risk of short circuits" patented technology

The invention discloses a metal lithium negative electrode piece, a preparation method thereof and a metal lithium secondary battery. The metal lithium negative electrode piece comprises a current collector, wherein a metal lithium layer is formed on the current collector; a composite conductive film is formed on the metal lithium layer. The preparation method of the metal lithium negative electrode piece comprises the following steps: laminating a metal lithium foil and the current collector together, or plating lithium metal on the surface of the current collector; dissolving a polymer electrolyte in a solvent to prepare a polymer electrolyte solution; adding a conductive agent into the polymer electrolyte solution; stirring uniformly and then coating a mixed solution on the metal lithium layer; after evaporating the solvent, forming the composite conductive film on the surface of the metal lithium layer to obtain the metal lithium negative electrode piece; or, coating the mixed solution on a substrate and evaporating the solvent to obtain the composite conductive film, laminating the composite conductive film on the surface of the metal lithium layer to form the composite conductive film and obtain the metal lithium negative electrode piece. The metal lithium negative electrode piece provided by the invention can inhibit lithium dendrites, prevent batteries from being short-circuited, and improve safety performance and cycling performance of lithium batteries.

A touch panel includes a substrate, a decoration layer, a touch sensing device, and at least one first insulation pattern. The substrate has a light transmissible region and a peripheral region. The decoration layer is disposed in the peripheral region. The touch sensing device includes a first patterned transparent sensing layer disposed at least in the light transmissible region. The first patterned transparent sensing layer extends to the peripheral region, partially overlapping the decoration layer. The first insulation pattern is disposed in the peripheral region and located between the first patterned transparent sensing layer and the decoration layer, so that the first patterned transparent sensing layer and the decoration layer are not in contact with each other.

An embodiment of the invention provides an array substrate and a preparation method thereof, and a flexible display device, relates to the technical field of flexible display and is used for solving aproblem of proneness of circuit breakage and short circuit when an IC is bound to the flexible display panel directly. The array substrate including a binding area and a plurality of binding bondingpad arranged in the binding area of the flexible substrate. The array substrate also includes an insulation support part disposed in the binding area and in a position without the binding bonding pad.The upper surface of the insulation support part protrudes from the upper surface of the binding bonding pad. The array substrate is used for forming the flexible display device.

The embodiment of the invention discloses a display substrate and a display device. According to the technical scheme, data signal fan-out lines are arranged on a touch electrode layer, a grid layer and a source drain electrode layer, compared with the prior art that data signal fan-out lines are arranged on the grid layer and the source drain electrode layer, the number of the arranged data signal fan-out lines on the grid layer and the source drain electrode layer can be reduced, and thus the setting density of the data signal fan-out lines of the grid layer and/or the source drain electrode layer can be lowered; when a data signal is led out of a display area, the distance between the lines which are aslant arranged is increased, and a short-circuited risk between respective data signal fan-out lines of the grid layer and/or the source drain electrode layer is lowered.

The invention belongs to the technical field of lithium ion batteries, and particularly relates to an inorganic and organic composite multihole diaphragm. The diaphragm comprises a multihole diaphragm base material and an active coating layer attached to at least one surface of the multihole diaphragm base material, wherein the active coating layer comprises inorganic particles, vinylidene fluoride and hexafluoropropylene copolymer, cellulose based polymer with the molecular weight of 100,000 to 1,000,000 and at least one of polyacrylic acid and polyacrylate. Compared with the prior art, the diaphragm keeps relatively high air permeability and lithium ion transmission capacity; the active coating layer and the multihole diaphragm base material are well bonded; and the overheating contraction performance and the puncture strength of a diaphragm base can be improved remarkably. Furthermore, the invention also discloses a preparation method for the diaphragm and a lithium ion battery with the diaphragm.

The invention provides a lithium ion battery diaphragm. The lithium ion battery diaphragm comprises a diaphragm base material and a solid electrolyte layer arranged on at least one surface of the diaphragm base material. The invention also provides a preparation method of the lithium ion battery diaphragm, a device adopted by the preparation method and a lithium ion battery containing the lithium ion battery diaphragm. A high rate of lithium ion transmission between positive and negative poles of the lithium ion battery containing the lithium ion battery diaphragm is kept, a risk of short circuit between the positive and negative poles is reduced, and a diaphragm heat shrinkage problem and battery safety are improved.

The invention discloses a dye sensitized solar cell, which comprises an optical anode, a counter electrode, electrolyte and a packaging shell. The counter electrode is positioned above the optical anode and is arranged inside the packaging shell; the electrolyte is full of the packaging shell; the optical anode comprises a transparent conductive substrate, a transparent conductive film and a porous transition metal oxide film which adsorbs dye molecules; the porous transition metal oxide film is coated on the transparent conductive film; and the counter electrode comprises a diaphragm serving as a substrate of the counter electrode, and a catalytic material and a grid electrode which are deposited on the diaphragm in turn. The invention also discloses a method for preparing the dye sensitized solar cell. The invention reduces the manufacturing cost, lightens the cell weight, reduces the short circuit risk and shortens the electronic transmission distance, and the dye sensitized solar cell is high-efficiency.

The invention discloses an inorganic/organic composite functional porous isolating membrane. The isolating membrane comprises porous base material and at least one inorganic functional coating adhering to the surface of the porous base material, and aqueous slurry prepared for the inorganic functional coatings is prepared from inorganic ceramic particles, water-soluble polymer thickener and aqueous polymer adhesive; the inorganic ceramic particles comprise the same substance in two types of particle sizes, wherein the average particle size (D50) of the smaller inorganic ceramic particles is 0.2-0.5 micrometer, and the average particle size (D50) of the larger inorganic ceramic particles is 0.6-1.0 micrometer; the aqueous polymer adhesive is a hydrophobic high-molecular polymer with the water drop contact angle of the dry adhesive of the aqueous polymer adhesive 110-140 degrees; the solid content of the aqueous slurry is 40-60%. According to the inorganic/organic composite functional porous isolating membrane, the high-temperature thermal stability of the isolating membrane can be effectively improved by means of the inorganic functional coatings, and the water content of the inorganic coatings is effectively reduced, so that the safe performance of a battery and the stability of long-term circulation are improved.

The invention discloses an array substrate, a manufacturing method thereof and a display device, and belongs to the field of display. The array substrate includes a substrate, a first metal layer, a second metal layer, and a third metal layer, wherein the first metal layer, the second metal layer and the third metal layer are disposed on the substrate; the array substrate is divided into a displayarea and a peripheral area; the peripheral area of the array substrate is provided with a plurality of signal line leads, one part of the plurality of signal line leads are located at the first metallayer, another part of the plurality of signal line leads are located in at least one layer of the third metal layer and the second metal layer, the first metal layer includes a shading layer locatedat the display area, the second metal layer comprises a gate layer located at the display area, and the third metal layer includes a source and drain layer located at the display area. In the case where the peripheral area is small, the wiring congestion of the signal line leads is alleviated, the signal line lead pitch is increased, a short circuit risk is lowered, and the signal line leads canbe designed to be thicker due to the reduced wiring congestion, thereby avoiding the open circuit risk of the signal line leads.

The present invention discloses an array substrate, a liquid crystal display panel and a touch display device. The array substrate comprises: a base substrate, as well as a touch trace layer including a plurality of touch traces, a first insulating layer, touch electrode layer including a plurality of touch electrode blocks in matrix arrangement, a second insulating layer, and a pixel electrode layer including a plurality of pixel electrodes in matrix arrangement and a bridge structure, which are disposed on the base substrate in sequence, wherein the touch traces are electrically connected to the corresponding touch electrode blocks by means of the bridge structure; the bridge structure fills up and runs through first via holes of the second insulating layer that expose the touch electrode blocks and run through second via holes of the second insulating layer and the first insulating layer that expose the traces; and the bridge structure is located between every two adjacent columns of pixel electrodes, and the first via holes and the second via holes that the bridge structure correspondingly fills up are spaced apart by at least one row of pixel electrodes. With the technical solution provided in the present invention, risks of short-circuiting between the bridge structure and the pixel electors are reduced, and the yield of manufacturing of liquid crystal display panels is improved.

The invention relates to an arrangement and circuit, and to a method for interconnecting flat rigid or flexible solar cells, the photoelectrically active layers thereof being applied to an insulating substrate material. The solar cells (1) in the arrangement and circuit of flat rigid or flexible solar cells are disposed overlapping in the contact area to one or more adjacent solar cells (1), as is already known as such.; Said solar cells (1) are interconnected to each other directly once or a plurality of times in a novel manner, having a contact material (10) at the overlapping area to each other, using contact material (10) or switching points (22). In the method, an electrically conductive layer is generated on an entire solar cell matrix made of a plurality of overlapping solar cells (1) at individual or, if necessary, selectively at a plurality of (optionally a great many of) switching points (22), by means of screen printing, dispensing, spraying, vaporization, sputtering, or galvanically precipitating. Said layer, or the corresponding number of layers, are then applied pointwise to the corresponding locations so that the back side contact (7) of each of the upper solar cells (1) is connected to the front side contact (17) of the immediately adjacent overlapping solar cell (1).; The contact material (10) can be applied and disposed here as a continuous strand or as individual or a plurality of contacts in one or more switching points (22). The invention can be applied for rigid or flexible solar cells, particularly those produced using thin film technology. Said solar cells can also be individual, discrete solar cells, or also a plurality of so-called monolithically interconnected solar cells on a common substrate material.

The invention provides a safety layer and a lithium secondary battery. The safety layer is used for separating a positive electrode sheet and a negative electrode sheet, and comprises at least two layers of electrically insulating ion conducting layers and at least an absorption layer, wherein the absorption layer is positioned between each two adjacent two electrically insulating ion conducting layers, one sides respectively close to the positive electrode sheet and the negative electrode sheet are the electrically insulating ion conducting layers in the safety layer, the absorption layer comprises a substance capable of reversibly deintercalating lithium, and the conductivity of the absorption layer is not less than 10<-1> S/m. According to the present invention, after the safety layer is applied in the lithium secondary battery, the growth of the dendritic lithium can be effectively alleviated, the risk of the short circuit of the lithium secondary battery in various extreme and complicated environments is reduced, the cycle life of the lithium secondary battery is prolonged, and the safety performance of the lithium secondary battery is increased; and the safety layer cannot reduce the energy density of the lithium secondary battery.

The invention discloses an array substrate and a preparation method thereof. The array substrate comprises a substrate, a buffer layer, a semiconductor pattern layer, a first grid electrode insulation layer, a second grid electrode insulation layer, a first conductive pattern layer, an interlayer insulation layer and a second conductive pattern layer, wherein the substrate comprises a thin-film transistor region and a capacitor region; the buffer layer is formed on the substrate; the semiconductor pattern layer is formed on the buffer layer and comprises a source and drain electrode region and a first electrode; the first grid electrode insulation layer is formed on the semiconductor pattern layer and correspondingly covers regions, except the first electrode, of the thin-film transistor region and the capacitor region; the second grid electrode insulation layer is formed on the first grid electrode insulation layer; the first conductive pattern layer is formed on the second grid electrode insulation layer and comprises a grid electrode and a second electrode; the interlayer insulation layer is formed on the first conductive pattern layer; the second conductive pattern layer is formed on the interlayer insulation layer and comprises a source electrode and a drain electrode which are coupled with the source and drain electrode region as well as a third electrode. With the adoption of the array substrate and the preparation method thereof, the capacitance of a capacitor is increased, film layer structures of the regions except the capacitor region are not changed, the signal line load is effectively decreased, and meanwhile, short-circuit risks of upper and lower film layers of the grid electrode insulation layers are reduced.

The invention provides a wafer bonding method and a wafer bonding structure. The wafer bonding method is characterized in that before the wafer bonding processing, an interlayer dielectric layer is formed on a wafer, and the interlayer dielectric layer comprises a first dielectric layer and an insulation layer, which are formed sequentially; an interconnection structure can be formed in the interlayer dielectric layer, and a part of the interconnection structure is protruded from the surface of the interlayer dielectric layer, and is a bonding end of the interconnection structure; and side walls are formed on the side walls of the bonding end. The wafer bonding method and the wafer bonding structure are advantageous in that the insulation layer is used to completely cover the surface of the interlayer dielectric layer, and the side walls are used to cover the side walls of the bonding end; after the bonding processing of a plurality of wafers, the adjacent bonding ends are provided with the insulation layers and the side walls for the isolation, and the short circuit is not easy to occur; and in addition, under the protection of the side walls, the bonding ends are not exposed in the external environment, and the oxide is not easy to form under the influence of the oxygen and the water vapour, and at the same time, the short circuit risk can be reduced.

The invention discloses fractional-slot concentrated winding permanent magnet synchronous motor and a design method thereof for improving reluctance torque. The fractional-slot concentrated winding permanent magnet synchronous motor comprises a stator and a rotor, wherein the stator is slotted along the peripheral direction to form fault-tolerant teeth and armature teeth arranged alternately; an armature winding is wound on the armature teeth, the fault-tolerant teeth and the armature teeth are different in widths, and the widths of the armature teeth are wider than those of the fault-tolerantteeth; the rotor consists of a permanent magnet, a rotor core and a magnetic obstacle, the permanent magnet is a double-layer permanent magnet, the rotor core is composed of a plurality of independent units, and during machining, the rotor is wrapped with a non-metal material to form a compact structure. The rotor core is segmented along the axis pole direction of the permanent magnet, and the width of the upper part of the magnetic obstacle during segmentation is narrower than that of the lower part. The permanent magnet synchronous motor has the advantages that the direct-axis inductance can be reduced through the special magnetic obstacle design, the influence on quadrature axis inductance can also be reduced as much as possible, and the subharmonic of the motor is free of obvious inhibition. Therefore, the reluctance torque of the motor can be improved effectively, and the iron loss and eddy-current loss of the motor are reduced.

The invention discloses a processing method for wrapping a side surface of a printed-circuit connector product with nickel gold. The processing method comprises the following steps of A, addition of gold-plated leads: adding leads on the corner of a square bonding pad and at a welding ring position of a solder resist covering via hole in a mode of adding the leads on the two sides; B, prevention of gold-plating permeation: adopting processes of using a photosensitive wet film as the base, and performing one-time exposure pattern transferring after photosensitive dry film protection is carried out so as to realize the prevention of gold-plating permeation; and C, performing protection while etching the leads: choosing a Dupont GMP220 thick dry film with the thickness of 2mil, and adopting an alkali etching process so as to prevent circuit corrosion and oxidization caused by attack of liquid medicine on the inlet surface.

The invention discloses a touch panel which comprises a base, a decoration layer, a touch sensing element and at least one first insulation pattern. The base is provided with a light transmitting area and a peripheral area, and the decoration layer is arranged in the peripheral area of the base. The touch sensing element comprises a first patterning transparent sensing layer which is at least arranged in the light transmitting area of the base, wherein the first patterning transparent sensing layer extends into the peripheral area and is partially overlaid with the decoration layer. The insulation pattern is arranged in the peripheral area of the base and positioned between the first patterning transparent sensing layer and the decoration layer, so that the first patterning transparent sensing layer does not contact with the decoration layer.

The invention provides a secondary battery, which includes an electrode assembly, a shell and a first electrode terminal, wherein the shell is provided with an accommodating cavity, the electrode assembly is accommodated in the accommodating cavity, and the first electrode terminal is arranged in the shell; the electrode assembly comprises a first pole piece, a second pole piece and a diaphragm, and the diaphragm separates the first pole piece from the second pole piece; the first pole piece comprises a first current collector, a first active substance layer and an insulating layer; the firstcurrent collector comprises a first main body part and a first tab extending from the first main body part, at least part of the surface of the first main body part is coated with the first active substance layer, and the first tab protrudes out of the first main body part and is electrically connected with the first electrode terminal; and the insulating layer is at least partially coated on thesurface of the first tab, and the elastic modulus of the insulating layer is less than that of the first tab.

The invention provides an antistatic protection structure and a reliability improving method of a semiconductor panel. The antistatic protection structure comprises an antistatic protection ring, a circuit module and pads, each pad is in short-circuit connection with the antistatic protection ring via a short-circuit line, part, connected with the short-circuit lines, of the antistatic protection ring is positioned at the outer side of a cutting line of the semiconductor panel, and a passivation insulating layer over the short-circuit lines in the semiconductor panel is internally provided with a cut-off window out of which a short-circuit line film layer is exposed. In the manufacture process of the panel, different points of the circuit are kept in the same potential, and static injury is avoided; before completion of the manufacture process of the panel, the short-circuit lines are cut off to disconnect the pads from the antistatic protection ring; and after completion of the manufacture process of the panel, the parts outside the panel of the short-circuit lines are cut to realize dual electrical isolation of the circuit module from the antistatic protection ring. On the premise that a static protection effect is ensured, the reliability of the panel is improved greatly.

The invention provides a capacitor structure and a manufacturing method thereof, and the method comprises the steps: forming an etching stop layer, a lower sacrificial layer, a central supporting layer, a top sacrificial layer, a first supporting layer, and a stress relieving layer on a bottom substrate, wherein the bottom substrate is provided with a contact hole; etching the stress relieving layer based on a first pattern mask to form a stress relieving part; forming a second supporting layer on the first supporting layer and the stress relieving part, wherein the first supporting layer andthe second supporting layer wrap the stress relieving part to form a top supporting layer; etching the top supporting layer based on the second pattern mask to form a primary capacitance hole; forminga lower electrode layer at least on the surface of the inner wall of the primary capacitor hole; etching at least the top supporting layer based on a third pattern mask to form an etching opening; and removing the top sacrificial layer, a portion of the central supporting layer, and the lower sacrificial layer based on the etch opening to form an ultimate capacitance hole. According to the invention, the problem of low stability of the capacitor support layer in the existing capacitor structure is solved.

The invention discloses a novel isolating membrane compositing and winding process and a lithium-ion battery. The isolating membrane compositing and winding process is characterized in that electrodesand an isolating membrane are composited by hot pressing in advance and then wound into a bare cell. The process can make great improvement on problems such as the change of tab alignment, the deformation of the wound cell and the fold of the isolating membrane caused by the stress of the isolating membrane inside the traditional wound cell. The lithium-ion battery assembled from electrodes containing the composite structure is characterized by good interface contact between the electrodes inside the battery, difficult deformation and longer cycle life.