mhurhangee/patent-ind-claim-en huggingface dataset:
A semiconductor architecture comprising: a wafer ; a landing pad included in the wafer ; an integrated circuit for signal routing provided on a first surface of the wafer , the integrated circuit for signal routing comprising a buried power rail, BPR, provided on the landing pad ; a power distribution network, PDN, integrated circuit provided on a second surface of wafer ; and a through-silicon via, TSV, protruding from the PDN integrated circuit being provided on the landing pad , the landing pad being provided between the BPR and the TSV ; and characterized by further comprising: a TSV etch stop layer provided between the landing pad and the TSV ; and an encapsulant provided between the landing pad and the BPR . a wafer ; a landing pad included in the wafer ; an integrated circuit for signal routing provided on a first surface of the wafer , the integrated circuit for signal routing comprising a buried power rail, BPR, provided on the landing pad ; a power distribution network, PDN, integrated circuit provided on a second surface of wafer ; and a through-silicon via, TSV, protruding from the PDN integrated circuit being provided on the landing pad , the landing pad being provided between the BPR and the TSV ; and characterized by further comprising: a TSV etch stop layer provided between the landing pad and the TSV ; and an encapsulant provided between the landing pad and the BPR . a TSV etch stop layer provided between the landing pad and the TSV ; and an encapsulant provided between the landing pad and the BPR .
A method of operating a network node that includes a holographic beamforming antenna, comprising: configuring the holographic beamforming antenna to point a high directivity beam at a first adjacent node; receiving information indicating a bandwidth shortage; and reconfiguring the holographic beamforming antenna to point a high directivity beam at a second adjacent node according to the information indicating the bandwidth shortage. configuring the holographic beamforming antenna to point a high directivity beam at a first adjacent node; receiving information indicating a bandwidth shortage; and reconfiguring the holographic beamforming antenna to point a high directivity beam at a second adjacent node according to the information indicating the bandwidth shortage.
Compound of formula (I): where R 1 , R 2 , R 3 , R 4 are selected from: -(C 1 -C 12 ) -alkyl, - O-(C 1 -C 12 )-alkyl, and R 5 is selected from: -(C 1 -C 12 )-alkyl, -O-(C 1 -C 12 )-alkyl, - Ph. where R 1 , R 2 , R 3 , R 4 are selected from: -(C 1 -C 12 ) -alkyl, - O-(C 1 -C 12 )-alkyl, and R 5 is selected from: -(C 1 -C 12 )-alkyl, -O-(C 1 -C 12 )-alkyl, - Ph.
A method for producing a stable, propylene glycol-free and glycerin-free, spray-dried flavor composition, the method comprising dissolving dextrin and isomalt in water; forming an emulsion of the dissolved dextrin and isomalt with a surfactant selected from polyglyceryl-10 oleate, polyglyceryl-10 caprylate/caprate or polyoxyethylene sorbitan monostearate; and with a flavor that contains volatile compounds, and wherein the flavor is selected from synthetic flavor and flavoring aromatics, and/or oils, oleo resins and oil extracts derived from plants, leaves, flowers, fruits, and combinations thereof; spray drying the emulsion in a spray dryer having an inlet temperature of less than 100°C and an air inlet dew point -10°C to 5°C; and further drying in a fluid bed chamber attached at the spray dryer outlet, wherein the temperature of the air of the fluid-bed unit is at or below the outlet temperature of the spray dryer.
A process for producing thermally inhibited starch comprising the steps of: (i) providing starch having a water content below 10 wt.% on dry starch basis; (ii) adding an alkaline solution of a water-miscible organic solvent having a boiling point which is lower than the boiling point of water; the amount of water-miscible organic solvent being between 1 wt.% and 150 wt% on dry starch weight, the amount of alkali being 0.001-0.5 meq per g dry starch and the resulting amount of water being less than 12 wt.% on dry starch basis; (iii) heating the starch between 140 and 190 °C in the presence of water; (iv) cooling and optionally further processing the starch. (i) providing starch having a water content below 10 wt.% on dry starch basis; (ii) adding an alkaline solution of a water-miscible organic solvent having a boiling point which is lower than the boiling point of water; the amount of water-miscible organic solvent being between 1 wt.% and 150 wt% on dry starch weight, the amount of alkali being 0.001-0.5 meq per g dry starch and the resulting amount of water being less than 12 wt.% on dry starch basis; (iii) heating the starch between 140 and 190 °C in the presence of water; (iv) cooling and optionally further processing the starch.
An ultrasonic diagnostic apparatus comprising: a transmission beam generating unit that generates a plurality of sets of transmission beams by setting transmission beams which are transmitted in different transmission scan line positions and in which the sum of waveforms is 0, to one set; a reception beam generating unit that generates reception beams with respect to at least one reception scan line in consideration of transmission delay of the transmission beams in each of the transmission scan lines; a signal processing unit that extracts fundamental components and harmonic components from the reception beams, respectively; a synthesization unit that generates synthesized signals by synthesizing the fundamental components and the harmonic components according to a set synthesization ratio; a display unit that displays a synthesized image comprising the synthesized signals; characterised in that the apparatus further comprises an input unit to which selection of the synthesization ratio is input from a user, wherein the display unit displays a synthesized image according to the selected synthesization ratio that changes when the synthesization ratio changes, in real time, and wherein the input unit receives selection of the synthesization ratio in at least one of a lateral direction, an axial direction, and an elevational direction. a transmission beam generating unit that generates a plurality of sets of transmission beams by setting transmission beams which are transmitted in different transmission scan line positions and in which the sum of waveforms is 0, to one set; a reception beam generating unit that generates reception beams with respect to at least one reception scan line in consideration of transmission delay of the transmission beams in each of the transmission scan lines; a signal processing unit that extracts fundamental components and harmonic components from the reception beams, respectively; a synthesization unit that generates synthesized signals by synthesizing the fundamental components and the harmonic components according to a set synthesization ratio; a display unit that displays a synthesized image comprising the synthesized signals; characterised in that the apparatus further comprises an input unit to which selection of the synthesization ratio is input from a user, wherein the display unit displays a synthesized image according to the selected synthesization ratio that changes when the synthesization ratio changes, in real time, and wherein the input unit receives selection of the synthesization ratio in at least one of a lateral direction, an axial direction, and an elevational direction.
Use of boron and iron in combination as a grain refining agent in copper/zinc/silicon cast alloys, characterised in that the iron content of the alloys is at least 0.1% by weight and a maximum of 0.5% by weight, in that the boron content of the alloys is at least 0.005% by weight and in that the ratio of boron content of the alloy [in % by weight] and iron content of the alloy [in % by weight] is at least 0.025 and a maximum of 0.12.
A method of applying a seal material in manufacturing a vacuum insulated glazing (VIG) unit, wherein the VIG unit comprises a first glass sheet , having a first interior major surface and a first exterior major surface, a second glass sheet having a second interior major surface and second exterior major surface, the glass sheets are placed in parallel with said interior major surfaces facing each other and providing a gap therein between, wherein a plurality of support structures are distributed in said gap, and a seal material for providing a seal of said gap, wherein the method comprises the steps of providing one of said glass sheets, arranging said seal material on a major surface of at least one of said glass sheets by means of a nozzle having a nozzle opening of elongated shape, such as a rectangular or oval shape, providing a plurality of support structures on the major surface of at least one of the glass sheets; pairing said first glass sheet and said second glass sheet so that the surface of the at least one of said glass sheets comprising the seal material is the interior surface, and evacuating said gap so as to provide said VIG unit, wherein the arranged seal material is of an elongated transverse cross-sectional shape, such as a rectangular transverse cross-sectional shape and wherein the applied seal material width (w1) is between 3-12 mm, such as between 5-12 mm measured along a major surface of the glass sheet on which the seal material is deposited. a first glass sheet , having a first interior major surface and a first exterior major surface, a second glass sheet having a second interior major surface and second exterior major surface, the glass sheets are placed in parallel with said interior major surfaces facing each other and providing a gap therein between, wherein a plurality of support structures are distributed in said gap, and a seal material for providing a seal of said gap, wherein the method comprises the steps of providing one of said glass sheets, arranging said seal material on a major surface of at least one of said glass sheets by means of a nozzle having a nozzle opening of elongated shape, such as a rectangular or oval shape, providing a plurality of support structures on the major surface of at least one of the glass sheets; pairing said first glass sheet and said second glass sheet so that the surface of the at least one of said glass sheets comprising the seal material is the interior surface, and evacuating said gap so as to provide said VIG unit, wherein the arranged seal material is of an elongated transverse cross-sectional shape, such as a rectangular transverse cross-sectional shape and wherein the applied seal material width (w1) is between 3-12 mm, such as between 5-12 mm measured along a major surface of the glass sheet on which the seal material is deposited.
A negative electrode for a lithium-metal secondary battery, the negative electrode comprising: a collector; and a polymer layer formed on at least one surface of the collector, wherein the polymer layer is arranged in a lattice structure having vacant spaces, and the vacant spaces are filled with lithium, characterized in that the lithium is filled in the vacant spaces so as to cover an area of 5% to 20% of a total area of vacant spaces in the polymer layer. a collector; and a polymer layer formed on at least one surface of the collector, wherein the polymer layer is arranged in a lattice structure having vacant spaces, and the vacant spaces are filled with lithium, characterized in that the lithium is filled in the vacant spaces so as to cover an area of 5% to 20% of a total area of vacant spaces in the polymer layer.
A phase change memory (PCM) cell comprising a first electrode ; a heater/PCM portion electrically connected to first electrode , the heater/PCM portion comprising a PCM material ; a second electrode electrically connected to the PCM material ; and an electrical insulator stack surrounding at least some of the heater/PCM portion, the stack comprising a plurality of first layers comprised of a first material and having a plurality of first inner sides facing towards the heater/PCM portion; and a plurality of second layers alternating with the plurality of first layers , the plurality of second layer comprised of a second material that is different from the first material, and the plurality of second layers having a plurality of second inner sides facing towards the heater/PCM portion; characterized in that the plurality of second inner sides that are offset from the plurality of first inner sides forming a plurality of gaps . a first electrode ; a heater/PCM portion electrically connected to first electrode , the heater/PCM portion comprising a PCM material ; a second electrode electrically connected to the PCM material ; and an electrical insulator stack surrounding at least some of the heater/PCM portion, the stack comprising a plurality of first layers comprised of a first material and having a plurality of first inner sides facing towards the heater/PCM portion; and a plurality of second layers alternating with the plurality of first layers , the plurality of second layer comprised of a second material that is different from the first material, and the plurality of second layers having a plurality of second inner sides facing towards the heater/PCM portion; characterized in that the plurality of second inner sides that are offset from the plurality of first inner sides forming a plurality of gaps .
A system comprising: - one or more sets of reflective visual markers , wherein each set of reflective visual markers is coupled to a component of a welding system ; - one or more cameras; - a light source configured to emit light, wherein each reflective visual marker is configured to reflect the emitted light received from the light source towards said one or more cameras; - a welding helmet ; - a controller communicatively coupled to the light source , wherein the controller is configured to control illumination settings of the light source based at least in part on a status of the welding system being utilized to perform a live-arc welding operation, wherein the one or more cameras are configured to detect the one or more sets of reflective visual markers and one or more sets of active visual markers , characterized in that the controller is configured to control the illumination settings of the light source during non-live welding intervals to pulse or continuously emit light of a wave length or intensity that reduces or eliminates unintentional activation of an auto-darkening circuit of the welding helmet of the welding system caused by the light source being utilized to perform a simulated welding operation. - one or more sets of reflective visual markers , wherein each set of reflective visual markers is coupled to a component of a welding system ; - one or more cameras; - a light source configured to emit light, wherein each reflective visual marker is configured to reflect the emitted light received from the light source towards said one or more cameras; - a welding helmet ; - a controller communicatively coupled to the light source , wherein the controller is configured to control illumination settings of the light source based at least in part on a status of the welding system being utilized to perform a live-arc welding operation, wherein the one or more cameras are configured to detect the one or more sets of reflective visual markers and one or more sets of active visual markers , characterized in that the controller is configured to control the illumination settings of the light source during non-live welding intervals to pulse or continuously emit light of a wave length or intensity that reduces or eliminates unintentional activation of an auto-darkening circuit of the welding helmet of the welding system caused by the light source being utilized to perform a simulated welding operation.
A recording material for forming a recording material layer of a recording sheet, the recording material comprising (A) at least one color former, (B) at least one compound selected from the group consisting of compounds represented by the following formula (I): and (C) at least one compound selected from the group consisting of compounds represented by the following formula (II): wherein R 1 to R 3 each represent a halogen atom, a nitro group, a C 1 to C 6 alkyl group, a C 1 to C 6 alkoxy group, a C 2 to C 6 alkenyl group or a C 1 to C 6 haloalkyl group, n1 and n3 each independently represent any integer of 0 to 5, n2 represents any integer of 0 to 4, and X represents -SO 2 -O- or -O-SO 2 -, wherein the ratio of component (C) to be used is 0.01 to 10 parts by mass with respect to 1 part by mass of the color former, and the ratio of component (B) to be used is 0.01 to 5 parts by mass with respect to 1 part by mass of component (C) . (A) at least one color former, (B) at least one compound selected from the group consisting of compounds represented by the following formula (I): and (C) at least one compound selected from the group consisting of compounds represented by the following formula (II): wherein R 1 to R 3 each represent a halogen atom, a nitro group, a C 1 to C 6 alkyl group, a C 1 to C 6 alkoxy group, a C 2 to C 6 alkenyl group or a C 1 to C 6 haloalkyl group, n1 and n3 each independently represent any integer of 0 to 5, n2 represents any integer of 0 to 4, and X represents -SO 2 -O- or -O-SO 2 -, wherein the ratio of component (C) to be used is 0.01 to 10 parts by mass with respect to 1 part by mass of the color former, and the ratio of component (B) to be used is 0.01 to 5 parts by mass with respect to 1 part by mass of component (C) . wherein R 1 to R 3 each represent a halogen atom, a nitro group, a C 1 to C 6 alkyl group, a C 1 to C 6 alkoxy group, a C 2 to C 6 alkenyl group or a C 1 to C 6 haloalkyl group, n1 and n3 each independently represent any integer of 0 to 5, n2 represents any integer of 0 to 4, and X represents -SO 2 -O- or -O-SO 2 -, wherein the ratio of component (C) to be used is 0.01 to 10 parts by mass with respect to 1 part by mass of the color former, and the ratio of component (B) to be used is 0.01 to 5 parts by mass with respect to 1 part by mass of component (C) . the ratio of component (C) to be used is 0.01 to 10 parts by mass with respect to 1 part by mass of the color former, and the ratio of component (B) to be used is 0.01 to 5 parts by mass with respect to 1 part by mass of component (C) .
A bonding device for bonding an irregular-shaped curved cover plate to a flexible screen , characterized in that the irregular-shaped curved cover plate comprises a flat area and a pair of arc hook areas located on both sides of the flat area and smoothly extending from the flat area , the bonding device for bonding the irregular-shaped curved cover plate to the flexible screen comprising: a support body supporting the flexible screen ; and a bonding body configured for supporting the flexible screen together with the support body , and configured for pressing the flexible screen , the bonding body having a cylindrical shape, two ends of the bonding body respectively corresponding to the arc hook areas of the irregular-shaped curved cover plate , a cross-sectional shape of the bonding body along an axial direction matching with a cross-sectional shape of the irregular-shaped curved cover plate , the support body being adjacent to a radial end of the bonding body , the bonding body being capable of expanding along the axial direction, to have both ends thereof abutted against the arc hook areas . a support body supporting the flexible screen ; and a bonding body configured for supporting the flexible screen together with the support body , and configured for pressing the flexible screen , the bonding body having a cylindrical shape, two ends of the bonding body respectively corresponding to the arc hook areas of the irregular-shaped curved cover plate , a cross-sectional shape of the bonding body along an axial direction matching with a cross-sectional shape of the irregular-shaped curved cover plate , the support body being adjacent to a radial end of the bonding body , the bonding body being capable of expanding along the axial direction, to have both ends thereof abutted against the arc hook areas .
A receiver, wherein the receiver comprises an attenuation circuit , a low-noise amplification circuit , an orthogonal down-frequency conversion circuit , and a control circuit , an output end of the attenuation circuit is coupled to an input end of the low-noise amplification circuit , an output end of the low-noise amplification circuit is coupled to an input end of the orthogonal down-frequency conversion circuit , and the control circuit is separately coupled to the low noise amplification circuit and the attenuation circuit , wherein the attenuation circuit is configured to receive an input signal, and obtain a first signal according to the input signal, wherein the first signal is the input signal or an attenuated signal obtained after the input signal is attenuated; the low-noise amplification circuit is configured to receive the first signal, and obtain a second signal according to the first signal, wherein the second signal is the first signal or an amplified signal obtained after low-noise amplification processing is performed on the first signal; the orthogonal down-frequency conversion circuit is configured to receive the second signal, and process the second signal to obtain an output signal; and the control circuit is configured to separately control the attenuation circuit and the low-noise amplification circuit according to power of an interference signal comprised in the output signal, so as to determine whether the attenuation circuit attenuates the input signal and whether the low-noise amplification circuit amplifies the first signal; wherein the orthogonal down-frequency conversion circuit comprises a low-pass filter, LPF; the control circuit is coupled to the LPF; and the control circuit is further configured to: control the LPF to attenuate, according to a preset first attenuation value, a signal that is input to the LPF, or control the LPF to attenuate, according to the preset first attenuation value, the signal that is input to the LPF, and control a digital control attenuator, DSA of the attenuation circuit to attenuate the input signal according to a preset second attenuation value.
A multi-function panel, consisting of wood fibers and bicomponent fibers as well as an additive or a mixture of additives, wherein the wood fibers take up a proportion of 10 wt.% to 90 wt.% and the bicomponent fibers take up a proportion of 90 wt.% to 10 wt.%, wherein the at least one additive or the mixture of additives comprises a group that comprises fungicides, insecticides, algicides and hydrophobing agents and wherein the multi-function panel has a density of 100 kg/m 3 to 300 kg/m 3 .