143 results about "Zigzag line" patented technology

A touch panel including a substrate, first electrodes and second electrodes is provided. The first electrodes and the second electrodes are electrically insulated from each other and are disposed on the substrate. Each first electrode includes first electrode pads and first connecting lines, and the first connecting lines connect adjacent two of the first electrode pads in series. Each second electrode includes second electrode pads and second connecting lines, and the second connecting lines connect adjacent two of the second electrode pads in series. An outer contour of each first electrode pad is defined by a first zigzag line, an outer contour of each second electrode pad is defined by a second zigzag line, and the first zigzag line and the second zigzag line located at a boundary between the first electrode and the second electrode are parallel or partially parallel to each other.

A zigzag slow-wave line of double ridged waveguide belongs to the technical field of microwave vacuum electron and relates to a traveling-wave tube amplifier. A slow-wave structure is formed by periodically bending the double ridged waveguide (4) along the electric field to form a right-angled zigzag line or a U-shaped zigzag line; circular through holes are arranged at the positions along the mean axis symmetric line (2) of the slow-wave structure on the waveguide wall; and the slow-wave lines are connected by the metal tubes (3) with the aperture the same with that of the circular through holes between two circular through holes of the right-angled groove or U-shaped groove in each zigzag periodic structure of the slow-wave structure to form an electron stream channel. Compared with conventional zigzag slow-wave line of waveguide, the slow-wave line has lower cut-off frequency, wider pass band range and flatter dispersion characteristics. In addition, in the event that the dispersion characteristics are approximate, the zigzag slow-wave line of double ridged waveguide has smaller cross-sectional dimension to well ensure the transfer characteristics of electron stream in traveling wave tube under the action of the same focusing magnetic field, so as to improve the integral output power and grain of the traveling wave tube.

The invention discloses a display panel and a display apparatus, and aims to improve zigzag lines on the edge region of the display panel and improve the display effect of the display panel. The display panel comprises a display panel body; the display panel body comprises a display region with a special-shaped edge and a non-display region which surrounds the display region; the display region comprises a plurality of first pixel units arranged close to the special-shaped edge, and a plurality of second pixel units in array arrangement and far from the special-shaped edge; each first pixel unit is divided into two parts by the outline of the special-shaped edge; the non-display region is provided with a shielding layer which extends to the display region; and the shielding layer cuts eachsub pixel of one color of each first pixel unit into a light shielding region and a light transmitting region.

The invention can be defined in its most general form as a method for production of sandwich panels with zigzag corrugated core (2) from sheet material used in aircraft construction, shipbuilding, and other branches of industry. With the aim to improve the quality and ease of sheet blank folding into the 3-D relief structure in the sheet blank at locations of crimp zigzag lines (4) protrusions and recesses the holes are punched with the diameter not less than the sheet blank bending radius.

The invention relates to a polarized stable active frequency selection surface structure. The structure comprises a dielectric substrate, a first zigzag line structure, a second zigzag line structure, PIN diodes which are loaded in cycle units, and feed lines which provide bias on the edge around the surface for PIN tubes. A number of metal lines are etched on upper and lower surfaces of the dielectric substrate to form the zigzag line structures. The zigzag lines of the same surface are parallel to each other and are spaced by the length of the translation of one unit. The zigzag lines of upper and lower surfaces are orthogonal. The middle parts of the metal lines close to each other in each unit are connected by welding PIN tubes. Positive and negative voltage bias are added into corresponding edge feed lines of upper and lower surfaces, and the working status of the PIN tubes is controlled. According to the invention, the structure can be applied to a radome; the frequency selection characteristic of manually adjustable surface frequency selection is realized; the polarization of different incident waves is stable; and the simple structure has the advantage of simple feeding mode, and is suitable for a complex electromagnetic environment.

To provide a medium press device, even in a case where a medium is conveyed diagonally or in a zigzag line, capable of keeping pressing ends of the medium, whereby it is possible to maintain a gap between an ink jet head and the medium to a desired gap to keep a printing quality constant, and an ink jet printer provided with the medium press device. A medium press device for holding a medium conveyed in an ink jet printer includes: a pair of press members for holding both ends of a width direction of the medium, respectively; and support tools for supporting the pair of press members, and the support tools support the press members so as to be capable of advancing and retreating in the width direction of the medium in alignment with positions of end portions of the width direction of the medium.

Leaky wave antennas that can be reconfigured in pattern and / or polarization by exploiting the characteristic of metamaterial structures loaded with variable capacitor and inductors employ a Composite Right Left Handed (CRLH) unit cell with two independent DC biases used to actively change the group delay of the transmission line and the polarization of the radiated field while preserving good impedance matching. Different degrees of pattern and polarization reconfigurability are achieved by cascading multiple of these unit cells along a straight line, a circular line or a zigzag line while preserving high gain for all the antenna configurations and good impedance matching.

A flat radially interacting electric drive comprises a flat stator, an axle and a magnetized flat rotor. The flat stator comprises a stator core made of silicon steel and placed within two layers of circuit boards. The circuit boards layers comprise circumferentially arrayed traces that are corresponding unidirectional segments of spatial continuous zigzag lines serving like coils with magnetic axes being directed radially. The coils electrically connected in a series way thus form a stator winding with alternated polarity coils. The flat rotor comprises circumferentially arrayed alternatively magnetized flat magnets with radially directed magnetic axes.

The combination of a Vivaldi slot and a meander line loaded antenna is provided which exhibits an ultra wideband characteristic with the Vivaldi notch expanding the high end and with the meander line loaded antenna portion reducing the low frequency cut-off. When these antennas are arrayed, this array exhibits a single lobe and an ultra wide 100:1 bandwidth. The Vivaldi notch portion of the antenna accommodates the higher frequencies, whereas the meander line loaded antenna portion of the antenna accommodates the lower frequencies, there being a smooth transition region between the Vivaldi and meander line portions of the antenna and no discontinuity. In one embodiment, the antenna is made to work between 50 MHz and 1500 MHz with a VSWR less than 3:1. The Vivaldi notch meander line combination assures that for an array one does not have a separation of the elements more than a 0.5 wavelength at the highest frequency, thus to eliminate the possibility of creating grating lobes. As one goes down in frequency to {fraction (1 / 50)} of the highest frequency, the 0.5 wavelength is divided by 50. This means that antenna element spacing is 0.01 wavelength at the low frequency end, clearly below that separation which would cause grating lobes. In short, the generation of grating lobes at the high end is prevented because the antenna element spacing is less than a 0.5 wavelength, with the situation improving as one goes down in frequency.

A switched meander line structure is substituted for a lumped element coupler (10) for an order of magnitude increase in gain due to the use of the switched meander line architecture. The use of the meander line (20) with relatively wide and thick folded legs markedly decreases I2R losses over wire inductors whose wire diameters at one-tenth of an inch contribute significantly to I2R losses. Additionally, placing solid state switches to short out various sections of a multi-leg meander line at high impedance nodes reduces I2R losses across the switching elements in the coupler. It has been found that, regardless of the impedance of the antenna, this impedance may be matched by switching in and out various sections of a folded multileg meander line due to the fact that the square of the sum of the capacitive reactances of the meander line decreases with frequency in synchronism with the unloaded Q of the meander line, thus to provide the ability to maintain a good match over frequency as the meander line is tuned to achieve resonance by shorting out combinations of sections of the meander line. The result of the substitution of the meander line architecture for the lumped element coupler is the reduction of losses associated with the use of wire inductors and losses due to the interposition of solid state switches at high-current nodes.

The invention relates to a low temperature co-firing ceramic antenna and a VHF(very high frequency) radio frequency identifying label antenna formed by the low temperature co-firing ceramic antenna. The antenna adopts the low temperature co-firing ceramic as a base plate and adopts metal wire to be printed on the low temperature co-firing ceramic base plate so as to from a needed shape. The VHF radio frequency identifying label antenna formed by the low temperature co-firing ceramic antenna comprises an L-shaped grounding metal wire which is printed on the low temperature co-firing ceramic base plate, a spiral micro strip eradiating unit which is connected with the L-shaped grounding metal wire, and a zigzag line shape feed-in metal wire which is connected at the connecting point of the L shape grounding metal wire and the spiral micro strip eradiating unit. The other end of the zigzag line shape feed in metal wire is the feeding line inputting end; the under layer of the L-shaped grounding metal wire, the spiral micro strip eradiating unit and the zigzag line shape feed in metal wire is provided with an under layer grounding metal plate which adopts the low temperature co-firing ceramic as a base plate; the other end of the L shape grounding metal wire is connected with the under layer grounding metal plate through a through hole between two layers. The present invention reduces the area of the antenna and reduces the wastage, which can realize the whole integration of the RFID label.

An object of the present invention is to provide a pneumatic tire that ensures both of the on-ice braking performance and the dry braking performance. In order to achieve the object, a pneumatic tire comprises a tread surface including a land portion in which a plurality of sipes are formed, wherein each of the sipes includes a reference plane extending in a depth direction of the sipe from a wavy or zigzag line in the surface of the land portion and each of the sipes is formed with a convex portion having a convex shape in a vertical section with respect to the reference plane in a top area at the front side and the rear side thereof.

The present invention relates to bit cell arrays of read-only-memories, and more specifically, to a bit cell array capable of preventing a coupling effect between adjacent bit lines. In addition, the bit cell array according to the present invention does not require an additional device in order to prevent the coupling effect. In accordance with the present invention, the bit cell array comprising: a plurality of bit lines arranged in a row in a first direction; a plurality of ground lines in a row in a second direction vertical to the first direction; a plurality of word lines arranged with a zigzag line with respect to the second direction; and a plurality of ROM bit cells partially formed at a cross-section point of the bit lines and the word lines. In the meanwhile, the ROM bit cells are arranged with a zigzag line with respect to adjacent bit lines. Additionally, the ROM bit cells comprise a drain terminal, a gate terminal and a source terminal. The drain terminal is connected to one of bit lines, the gate terminal is connected to one of word lines, and the source terminal is connected to one of ground lines.

Insulation regions in the manner of STI isolations, which run transversely with respect to the word lines, isolate the source / drain regions of adjacent memory cells. Metallic bit lines are applied on the top side and patterned for example along zigzag lines such that the source / drain regions of a memory transistor which are contact-connected by the bit lines are in each case electrically connected by two mutually adjacent bit lines.

The invention relates to a ridge loading zigzag waveguide slow wave line which belongs to the technical field of microwave vacuum electrons and relates to a traveling wave tube amplification device. The device is formed by connecting a series of arc bending waveguides (or right-angle bending waveguides) and straight waveguides end to end, i.e. bending rectangular waveguides into a U-shaped zigzagline (or a right-angle zigzag line) periodically along the electric field surface, so as to form a zigzag waveguide structure. A metal ridge sheet with a certain thickness is loaded on the inner wallsof the straight waveguides of each zigzag unit, and the waveguide walls and the metal ridge sheets are provided with round through holes along the position of a middle axle symmetric line of a slow wave structure, wherein the round through holes of the straight waveguides of two adjacent zigzag units are connected through a metal pipe with an aperture size the same as the aperture size of the round through hole so as to form an electron bunch passage. The invention can improve the coupling impedance of a zigzag waveguide slow wave system, thereby ensuring that a zigzag waveguide traveling wave tube has higher gain and efficiency.

The invention belongs to the technical field of metamaterial wave absorption, and particularly relates to a multi-layer broadband metamaterial wave absorber based on a multimode resistor and a design method of the multi-layer broadband metamaterial wave absorber. The metamaterial wave absorber is an array formed by periodically extending wave absorber units along x and y directions, and the period is p; each wave absorber unit is formed by stacking a bottom metal floor and three layers of wave absorbing layer-dielectric plates; the wave absorbing layer is an ITO resistive film printed on the PET film; the top layer of each wave absorber unit is of an annular zigzag line ITO structure, the middle layer of each wave absorber unit is of a square patch structure, and the bottom layer of each wave absorber unit is of a symmetrical four-trapezoid combined patch structure; two adjacent layers of PET films are separated by a dielectric plate; the bottoms of the units are metal floors; and the unit structures are in central symmetry; The structural parameters of the wave absorber unit are determined through optimization design, so that the metamaterial wave absorber shows excellent broadband wave absorbing performance under excitation of TE and TM polarized waves, and has angle insensitivity under TM polarization; the thickness is small, the structure is simple, and machining is convenient.

The invention relates to a laminating method of a rigid-flexible combined board. The laminating method comprises the following steps: stacking up a flexible plate, a cover film, an adhesive sheet and a rigid plate substrate and riveting to form a riveted structure; laminating release films and steel plates at two sides of the riveted structure respectively and laminating a hard silicon sheet between the release film and the steel plate, close to one side of the rigid plate substrate, to obtain a laminated structure; and pressing the laminated structure. According to the laminating method of the rigid-flexible combined board, during laminating, the hard silicon sheet is arranged at one side close to the rigid plate substrate, the purpose of pressure balance can be effectively realized, and the defects such as collapse due to unbalanced pressure, zigzag line, notch and the like can be overcome. The invention further provides a rigid-flexible combined board.

The invention discloses a pixel arrangement structure, display floater, display device and driving method. In each pixel groups, the line of the central point of the 1st, the 3rd and the 5th no.1 sub-pixel is on the first straight line, and the central point of the 2nd, the 4th and the 6th no.1 sub-pixel is on the second straight line, and tow lines is parallel to each other; Line up 6 central points successively form a zigzag line, and the line of any 2 adjacent central point is not perpendicular to first straight line, i.e. six sub-pixels form dotted misalignment. The edge of figure is smooth, therefore it can reduce edge saw tooth. Color of any adjacent three no.1 sub-pixels is different from each other, while there is only single-colored sub-pixel in prior technology, therefore it improves color mixture.

The invention discloses a loaded angle radial logarithmic zigzag line micro-strip slow-wave structure based on a photonic band gap structure, and belongs to the field of radial beam traveling wave tube slow-wave systems. The structure solves the technical problems that electron beams are deviated from radial tracks caused by an electric field formed by charge accumulation existing on a dielectric substrate, the damage of the micro-strip slow-wave structure and the deviation of the electron beams from effective interaction areas are possibly caused to cause the reduction of traveling wave tube efficiency, and the size of the traveling wave tube slow-wave system is decreased along with the increase of work efficiency and then the size of an electron beam passage is greatly reduced due to a size sharing effect so as to cause the increase of process cost and the reduction of performance and stability. The structure mainly comprises a dielectric substrate, angle radial logarithmic micro-strip zigzag lines, a photonic band gap structure and side micro-strip lines. The structure is used for a wave injection interaction system of radial beam traveling wave tubes.

The present invention relates to a 3-dimensional complex multilayer structure. The 3-dimensional complex multilayer structure includes a first pattern and a second pattern having different thicknesses formed on one or both surfaces of a plate. The first pattern is selected from the group consisting of parallel lines, parallel curves, parallel zigzag lines, and combinations thereof which do not meet each other. The second pattern is not parallel to the first pattern and is selected from the group consisting of parallel lines, parallel curves, parallel zigzag lines, and combinations thereof which do not meet each other. The interfaces between the first pattern and the second pattern form figures selected from the group consisting of polygons, circles, ellipses, and combinations thereof. The figures are repetitively formed on one or both surfaces of the plate. The 3-dimensional complex multilayer structure includes different complex patterns, whereas a conventional device has a kind of simple pattern. The 3-dimensional complex multilayer structure of the present invention can be manufactured by a simple process. Therefore, the 3-dimensional complex multilayer structure of the present invention can find application in various fields, including optical components for displays (e.g., light guide plates, diffusion plates, prisms, and color filters), next generation displays and display devices (e.g., TFTs, OTFTs, oxide TFTs, flexible displays, and transparent displays), next generation 3-dimensional semiconductors, dry adhesion based on the use of fine ciliary structures, micro / nano piezoelectric devices, lighting optical components, and biocell / virus research using micropatterns.

The invention discloses an integrated heating device of an electronic cigarette atomizer and belongs to the technical field of electronic cigarette. The integrated heating device of the electronic cigarette atomizer comprises a ceramic pipe and a heating substrate, a thick-film resistor is arranged on the inner surface of the heating substrate, and the thick-film resistor is uniform zigzag line-shaped; the heating substrate winds and packages the surface layer of the ceramic pipe; each of two ends of the thick-film resistor is electrically connected with an electrode, and the electrodes are arranged on the outer surface of the heating substrate; the electrodes are electrically connected with corresponding power cords. Compared with the prior art, the integrated heating device of the electronic cigarette atomizer has beneficial effects that the integrated structure is simpler and more stable than a traditional winding heating coil, and the heating is more uniform; the temperature of a heating body is more uniform, and the problem that the temperature of some part is too high is avoided.

The invention relates to an antenna commonly used in a microwave communication system, in particular to an antenna suitable for applying in radio frequency identification. The radio frequency identification antenna comprises a radio frequency tag chip, a basal body and a metal pattern coated on the basal body, wherein the basal body adopts a ceramic chip of which the dielectric constant is 5-150;the metal pattern is composed of a radiation part, a feeder line matching part, a resonance matching part, a side surface connection part and an anti-metal part, wherein the feeder line matching partis a zigzag line, one end is connected with the radiation part, and the other end is connected with the radio frequency tag chip; the resonance matching part is positioned on one end part of the basal body facade, one end is connected with the radio frequency tag chip, and the other end is connected with the side surface connection part; the side surface connection part is positioned on the side surface of the basal body, and the side surface connection part is connected with the anti-metal part. In the invention, the tag antenna matched with the tag chip can achieve 3dBi linear polarization gain and has further identification space if compared with the anti-metal tag with the same size. The antenna of the invention is suitable for frequency range of 800MHz-1GHz.

The present invention provides a vehicle traveling state determining apparatus including a camera which picks up an image of a road surface in a direction in which a vehicle is traveling, and zigzag state detecting section for determining a zigzag amount on the basis of the road surface image picked up using the camera, wherein the zigzag state detecting section is comprised of speed vector calculating section for calculating a speed vector of the road surface image by comparing a last road surface image picked up using the camera with a current road surface image picked up using the camera, and determining section for determining whether or not the vehicle is traveling in a zigzag line on the basis of the speed vector of the road surface image calculated by the speed vector detecting section.

A connector which is excellent in transmission characteristics and at the same time capable of facilitating cable-connecting operations. One contact group is comprised of a ground contact including a first contact portion and a first connection portion, a first signal contact including a second contact portion and a second connection portion, and a second signal contact including a third contact portion and a third connection portion. A plurality of the contact groups are held by a housing along a direction orthogonal to a connector fitting direction. First to third contact portions of all the contact groups are arranged on a single imaginary straight line substantially orthogonal to the connector fitting direction. The first to third connection portions are arranged such that imaginary straight lines connecting between the first to third connection portions of each contact group form an isosceles triangle, and imaginary straight lines connecting between the first connection portions of all the contact groups form one zigzag line.