mhurhangee/patent-ind-claim-en huggingface dataset:
A method for manufacturing a vertical organic field effect transistor, in which a vertical organic field effect transistor with a layer arrangement is manufactured on a substrate, which comprises transistor electrodes, namely a first electrode (23; 24), a second electrode (23; 24) and a third electrode , electrically insulating layers (25; 33) as well as an organic semiconductor layer , wherein the method comprises the following steps: - providing the substrate ; - depositing an adhesion-selective layer on the substrate ; - manufacturing a layer substructure of the vertical organic field effect transistor, which comprises at least one of the transistor electrodes (23; 24) and at least one of the electrically insulating layers , which adhere to the adhesion-selective layer in a respective touch contact region (26; 27); and - manufacturing the organic semiconductor layer by at least one organic semiconductor material being adhesively deposited on the layer substructure and wherein outside the layer substructure the adhesion-selective layer prevents an adhesive deposition of the at least one organic semiconductor material; and - manufacturing a remaining layer substructure of the vertical organic field effect transistor. - providing the substrate ; - depositing an adhesion-selective layer on the substrate ; - manufacturing a layer substructure of the vertical organic field effect transistor, which comprises at least one of the transistor electrodes (23; 24) and at least one of the electrically insulating layers , which adhere to the adhesion-selective layer in a respective touch contact region (26; 27); and - manufacturing the organic semiconductor layer by at least one organic semiconductor material being adhesively deposited on the layer substructure and wherein outside the layer substructure the adhesion-selective layer prevents an adhesive deposition of the at least one organic semiconductor material; and - manufacturing a remaining layer substructure of the vertical organic field effect transistor.
A sample test automation system comprising: a pre-processing device for performing pre-processing with respect to a specimen; a main conveyance line for conveying a specimen container carrier capable of mounting at least one specimen container which accommodates the specimen; and a plurality of annular conveyance lines that are disposed adjacent to the main conveyance line and zigzag with each other, are disposed so as to be capable of transferring the specimen container carrier to and from the main conveyance line , and are capable of circulating and conveying the specimen container carrier separately without using another conveyance line, characterized in that said plurality of annular conveyance lines include: a first annular conveyance line disposed adjacent to the main conveyance line; and a second annular conveyance line disposed radially on the inner side of the first annular conveyance line and provided so as to be capable of transferring the specimen container carrier to and from the first annular conveyance line . a pre-processing device for performing pre-processing with respect to a specimen; a main conveyance line for conveying a specimen container carrier capable of mounting at least one specimen container which accommodates the specimen; and a plurality of annular conveyance lines that are disposed adjacent to the main conveyance line and zigzag with each other, are disposed so as to be capable of transferring the specimen container carrier to and from the main conveyance line , and are capable of circulating and conveying the specimen container carrier separately without using another conveyance line, characterized in that said plurality of annular conveyance lines include: a first annular conveyance line disposed adjacent to the main conveyance line; and a second annular conveyance line disposed radially on the inner side of the first annular conveyance line and provided so as to be capable of transferring the specimen container carrier to and from the first annular conveyance line .
A method of a base station for allocating a time-domain resource for downlink, DL, data channel, PDSCH, transmission/reception or uplink, UL, data channel, PUSCH, transmission/reception, the method comprising: allocating the time-domain resource based on a slot or a mini-slot as a unit of an orthogonal frequency-division multiplexing, OFDM, symbol and at the same time, transmitting, to a user equipment, time-domain resource configuration information including OFDM symbol allocation information for OFDM symbols used for the DL data channel, PDSCH, transmission/reception or the UL data channel, PUSCH, transmission/reception in the slot or the mini-slot, wherein the time-domain resource configuration information includes, in the form of a table, the OFDM symbol allocation information and indexes indicating each of the symbol allocation information for each user equipment, the OFDM allocation information including for the DL data channel, PDSCH, transmission/reception one or more starting OFDM symbols and one or more lengths, the OFDM allocation information including for the UL data channel, PUSCH, transmission/reception one or more starting OFDM symbols and one or more lengths; and transmitting, to the user equipment, control information selecting one of the symbol allocation information included in the time-domain resource configuration information. allocating the time-domain resource based on a slot or a mini-slot as a unit of an orthogonal frequency-division multiplexing, OFDM, symbol and at the same time, transmitting, to a user equipment, time-domain resource configuration information including OFDM symbol allocation information for OFDM symbols used for the DL data channel, PDSCH, transmission/reception or the UL data channel, PUSCH, transmission/reception in the slot or the mini-slot, wherein the time-domain resource configuration information includes, in the form of a table, the OFDM symbol allocation information and indexes indicating each of the symbol allocation information for each user equipment, the OFDM allocation information including for the DL data channel, PDSCH, transmission/reception one or more starting OFDM symbols and one or more lengths, the OFDM allocation information including for the UL data channel, PUSCH, transmission/reception one or more starting OFDM symbols and one or more lengths; and transmitting, to the user equipment, control information selecting one of the symbol allocation information included in the time-domain resource configuration information.
A method for solvent vapor smoothing of a surface of a plastic product, the method comprising the steps of: - placing the plastic product to be smoothed in a closed chamber comprising a heated evaporator for solvent located at a bottom of the chamber ; - introducing a solvent to the evaporator and heating the solvent; - circulating solvent vapors inside the chamber in a direction from the bottom to a top of the chamber ; - allowing the solvent vapors to condense on the outer surface of the product; and - collecting solvent vapors from the upper portion of the chamber ; characterized by : - using a fan having a nozzle to influence circulation of solvent vapors inside the chamber in a direction from the bottom to a top of the chamber . - placing the plastic product to be smoothed in a closed chamber comprising a heated evaporator for solvent located at a bottom of the chamber ; - introducing a solvent to the evaporator and heating the solvent; - circulating solvent vapors inside the chamber in a direction from the bottom to a top of the chamber ; - allowing the solvent vapors to condense on the outer surface of the product; and - collecting solvent vapors from the upper portion of the chamber ; characterized by : - using a fan having a nozzle to influence circulation of solvent vapors inside the chamber in a direction from the bottom to a top of the chamber .
Adhesive mat for the imaging of the distribution of agricultural material for spreading, wherein the adhesive mat comprises a collecting region which is delimited at least on one side at least in part by an edge region , wherein the edge region comprises a through-opening and/or a handle , and wherein the edge region is designed in one part with the collecting region and is structured so as to be raised in relation to the collecting region , and wherein the collecting region comprises a plurality of nub-like elevations which are arranged in a grid on the collecting region. wherein the edge region comprises a through-opening and/or a handle , and wherein the edge region is designed in one part with the collecting region and is structured so as to be raised in relation to the collecting region , and wherein the collecting region comprises a plurality of nub-like elevations which are arranged in a grid on the collecting region.
A data transmission method of a source node in a cooperative communication system, comprising: performing, by the source node, beamforming to a relay node; performing, by the source node, beamforming to a destination node; transmitting, by the source node, a QPSK-modulated baseband transmission signal to the relay node in a first time slot, wherein the relay node generates a data by performing a QPSK demapping and a decoding on the QPSK-modulated baseband transmission signal transmitted from the source node; and transmitting, by the source node, the QPSK-modulated baseband transmission signal by applying a block coding to the destination node in a second time slot after the first time slot, wherein the QPSK-modulated baseband transmission signal is generated by performing QPSK modulation using first symbols and second symbols of data, wherein the beamforming is performed prior to the first time slot and the second time slot, wherein the first symbols and the second symbols are respectively allocated in two different frequency resources at a same time slot. performing, by the source node, beamforming to a relay node; performing, by the source node, beamforming to a destination node; transmitting, by the source node, a QPSK-modulated baseband transmission signal to the relay node in a first time slot, wherein the relay node generates a data by performing a QPSK demapping and a decoding on the QPSK-modulated baseband transmission signal transmitted from the source node; and transmitting, by the source node, the QPSK-modulated baseband transmission signal by applying a block coding to the destination node in a second time slot after the first time slot, wherein the QPSK-modulated baseband transmission signal is generated by performing QPSK modulation using first symbols and second symbols of data, wherein the beamforming is performed prior to the first time slot and the second time slot, wherein the first symbols and the second symbols are respectively allocated in two different frequency resources at a same time slot.
A method of forming a continuous strip from a plurality of strips stored in a coiled configuration , each of said plurality of strips having a leading end and a trailing end, the method comprising: successively uncoiling each of said plurality of strips from the coiled configuration and each strip further including a bottom side with a first bend direction, said uncoiling including feeding the leading end and the trailing end of each strip from a top position of the coiled configuration ; chamfering at least one of the leading and trailing ends of each of said plurality of strips ; positioning chamfered leading ends against chamfered trailing ends of successive ones of said plurality of strips ; welding on a top side of successive strips, from above, the trailing and leading ends positioned against each other to form a first weld joint between the successive strips, said welding thereby forming the continuous strip ; inverting the continuous strip and first weld joint only in the direction of the first bend direction so as not to create a reverse bend in the continuous strip and to position the bottom side of the continuous strip face up; and welding on the inverted bottom side, from above, along a bottom side of the inverted first weld joint to form a weld junction between successive strips. successively uncoiling each of said plurality of strips from the coiled configuration and each strip further including a bottom side with a first bend direction, said uncoiling including feeding the leading end and the trailing end of each strip from a top position of the coiled configuration ; chamfering at least one of the leading and trailing ends of each of said plurality of strips ; positioning chamfered leading ends against chamfered trailing ends of successive ones of said plurality of strips ; welding on a top side of successive strips, from above, the trailing and leading ends positioned against each other to form a first weld joint between the successive strips, said welding thereby forming the continuous strip ; inverting the continuous strip and first weld joint only in the direction of the first bend direction so as not to create a reverse bend in the continuous strip and to position the bottom side of the continuous strip face up; and welding on the inverted bottom side, from above, along a bottom side of the inverted first weld joint to form a weld junction between successive strips.
A solid-state imaging device , comprising: a substrate including one or more vertical trenches extending in a longitudinal direction and a horizontal trench that extends in a lateral direction and is connected to the one or more vertical trenches , wherein the horizontal trench is provided between a photoelectric conversion unit (PD) and a charge holding unit (MEM) in the substrate and includes a light-blocking film , and wherein the one or more vertical trenches include a first trench having a first width (L1) and including the light-blocking film , and a second trench having a second width (L2) narrower than the first width (L1) and not including the light-blocking film , or a third trench including a first part (T1) having a third width (W1) and including the light-blocking film and a second part (T2) having a fourth width (W2) narrower than the third width (W1) and not including the light-blocking film . a substrate including one or more vertical trenches extending in a longitudinal direction and a horizontal trench that extends in a lateral direction and is connected to the one or more vertical trenches , wherein the horizontal trench is provided between a photoelectric conversion unit (PD) and a charge holding unit (MEM) in the substrate and includes a light-blocking film , and wherein the one or more vertical trenches include a first trench having a first width (L1) and including the light-blocking film , and a second trench having a second width (L2) narrower than the first width (L1) and not including the light-blocking film , or a third trench including a first part (T1) having a third width (W1) and including the light-blocking film and a second part (T2) having a fourth width (W2) narrower than the third width (W1) and not including the light-blocking film .
Clamping device for connecting an elongated first element , such as a square tube section, to a second element running transversely thereto, such as a fitting, in particular an end fitting of a sprinkler hose, comprising - a basic element having, in a section vertical to the second element, a U shape with cross member and side members extending therefrom, between which members extends the second element in the mounting position, and - a clamping unit adapted such that by using it a force acts on the second element for fixing to the first element, said clamping unit having a clamping section extending from the cross member or from the side members or passing through said cross member, wherein the clamping unit furthermore has a retaining section extending from the basic element and having a passage opening vertical both to the side members and to the cross member, said retaining section being fixed between the side members , the passage opening being designed for receiving an actuating element such that said actuating element acts on the clamping section during movement in the direction thereof, the clamping section being designed to contact the second element and to apply force for fixing to the first element . - a basic element having, in a section vertical to the second element, a U shape with cross member and side members extending therefrom, between which members extends the second element in the mounting position, and - a clamping unit adapted such that by using it a force acts on the second element for fixing to the first element, said clamping unit having a clamping section extending from the cross member or from the side members or passing through said cross member,
A method for diagnosing a neutral swap condition in an electric power system employing a 3-phase 4-wire Wye wiring configuration or a 3-phase 4-wire Delta wiring configuration, comprising: determining a plurality of Line to Line voltage measurement values for the electric power system; determining a voltage ratio for the electric power system using a plurality of the Line to Line voltage measurement values, wherein the determining the voltage ratio comprises: determining a V min , where V min is a minimum of the Line to Line voltage measurement values; determining a V max , where V max is a maximum of the Line to Line voltage measurement values; and determining the voltage ratio as being equal to V min /V max ; and using the voltage ratio to determine whether the neutral swap condition is present. determining a plurality of Line to Line voltage measurement values for the electric power system; determining a voltage ratio for the electric power system using a plurality of the Line to Line voltage measurement values, wherein the determining the voltage ratio comprises: determining a V min , where V min is a minimum of the Line to Line voltage measurement values; determining a V max , where V max is a maximum of the Line to Line voltage measurement values; and determining the voltage ratio as being equal to V min /V max ; and determining a V min , where V min is a minimum of the Line to Line voltage measurement values; determining a V max , where V max is a maximum of the Line to Line voltage measurement values; and determining the voltage ratio as being equal to V min /V max ; and using the voltage ratio to determine whether the neutral swap condition is present.
Pipetting device (1; 1'), more particularly pipette or repeater pipette, for pipetting fluid laboratory samples, comprising an electric control apparatus , by means of which a pipetting process is electrically controllable, a movable part , by means of the movement of which the fluid sample is pipettable, an electrically controllable motor apparatus , by means of which the movement of the movable part is driveable depending on at least one first speed value defining the speed of the movable part, a measuring apparatus , by means of which at least one measured value which is influenced by the drag caused when pipetting the fluid sample is measurable, wherein the electric control apparatus is configured for the purposes of the at least one first speed value being fixable by the electric control apparatus, depending on the at least one measured value wherein the measuring apparatus is configured to measure a motor parameter of the motor apparatus , wherein the motor parameter is the motor current of the motor apparatus and wherein the measured value characterizes the motor parameter.
Electric heating cable comprising a central core defining a longitudinal axis (Y), a first electrical resistive wire , wound on said central core so as to define a first coil and an insulating coating sheath of the electrical resistive wire ; said electrical resistive wire having a flattened rectangular section comprising a first dimension (D1) and a second dimension (S1) that is smaller than said first dimension, respectively according to axes that are perpendicular to each other, wherein said second dimension is radially arranged with respect to the axis (Y) of the core, characterised in that said rectangular section of the resistive wire has a greater side , intended to come into contact with the insulating sheath , with rounded edges .
A method for locally deforming a flat surface of a substrate made of glass or a glass ceramic, characterized by the following process steps: - applying heat exclusively within a locally limited region via the surface of the substrate by means of laser radiation, gas flame, infrared radiation, electrical microwaves or plasma discharge directed towards the surface of the substrate in such a manner that the substrate is softened at least on the surface within the locally limited region, and a temperature and viscosity gradient is formed within the substrate laterally and orthogonally to the surface within the locally limited region so that a substrate surface opposite the surface of the substrate to which heat is applied has a viscosity above those viscosity values at which the substrate material begins to soften, - applying a pressing force oriented orthogonally to the surface acting on the softened surface within the locally limited region and/or a shear force oriented obliquely to the surface by means of which the softened substrate material is displaced, with the result that displacements of the softened substrate material directed laterally to the surface are obtained which are characterized by material deformations appearing on the surface of the softened material, by means of a tool which is brought in punctuate or flat contact with the softened surface of the substrate, and - cooling the substrate to obtain a surface that is deformed and set within the local region. - applying heat exclusively within a locally limited region via the surface of the substrate by means of laser radiation, gas flame, infrared radiation, electrical microwaves or plasma discharge directed towards the surface of the substrate in such a manner that the substrate is softened at least on the surface within the locally limited region, and a temperature and viscosity gradient is formed within the substrate laterally and orthogonally to the surface within the locally limited region so that a substrate surface opposite the surface of the substrate to which heat is applied has a viscosity above those viscosity values at which the substrate material begins to soften, - applying a pressing force oriented orthogonally to the surface acting on the softened surface within the locally limited region and/or a shear force oriented obliquely to the surface by means of which the softened substrate material is displaced, with the result that displacements of the softened substrate material directed laterally to the surface are obtained which are characterized by material deformations appearing on the surface of the softened material, by means of a tool which is brought in punctuate or flat contact with the softened surface of the substrate, and - cooling the substrate to obtain a surface that is deformed and set within the local region.