mhurhangee/ep-ind-claims huggingface dataset:
An apparatus comprising: one or more processors (465, 702); and a reconfigurable circuit device, wherein the reconfigurable circuit device is one of an Field Programmable Gate Array, FPGA, or Complex Programmable Logic Device, CPLD, and includes: a plurality of digital signal processing, DSP, blocks, each of the DSP blocks including a 9×9 bit multiplier circuit, and a plurality of logic elements, LEs; wherein the one or more processors (465, 702) are to configure the reconfigurable circuit device to operate as an Elliptic Curve Digital Signature Algorithm, ECDSA, engine (400, 490) for a bit stream, the ECDSA engine (400, 490) including: a hybrid 393 × 9 bit combinatorial multiplication unit, the hybrid 393 × 9 bit combinatorial multiplication unit combining 395 LEs and 43 DSP blocks and arranged to iteratively perform a multiplication of operands for signature verification to generate a product of a 384 × 384 bit multiplication operation. one or more processors (465, 702); and a reconfigurable circuit device, wherein the reconfigurable circuit device is one of an Field Programmable Gate Array, FPGA, or Complex Programmable Logic Device, CPLD, and includes: a plurality of digital signal processing, DSP, blocks, each of the DSP blocks including a 9×9 bit multiplier circuit, and a plurality of logic elements, LEs; a plurality of digital signal processing, DSP, blocks, each of the DSP blocks including a 9×9 bit multiplier circuit, and a plurality of logic elements, LEs; wherein the one or more processors (465, 702) are to configure the reconfigurable circuit device to operate as an Elliptic Curve Digital Signature Algorithm, ECDSA, engine (400, 490) for a bit stream, the ECDSA engine (400, 490) including: a hybrid 393 × 9 bit combinatorial multiplication unit, the hybrid 393 × 9 bit combinatorial multiplication unit combining 395 LEs and 43 DSP blocks and arranged to iteratively perform a multiplication of operands for signature verification to generate a product of a 384 × 384 bit multiplication operation.
An in vitro method for reprogramming an isolated differentiated cell to an undifferentiated stem cell comprising the step of fusing said differentiated cell to an isolated pluripotent cell, wherein said isolated pluripotent cell is treated in vitro with a suitable amount of a Wnt/β-catenin pathway activator being at least one Wnt protein isoform or a glycogen synthase kinase-3 inhibitor.
Elastomer product comprising an electronic assembly embedded into an elastomeric material and enclosed by the latter, said electronic assembly comprising a chip module composed of a first carrier with a chip containing an integrated electronic circuit, and also an antenna conductor (14, 32), characterized in that the electronic assembly furthermore comprises, as a further constituent of the chip module composed of the first carrier with the chip containing the integrated electronic circuit, an inductive coupling loop connected to the chip and an antenna module composed of a second carrier and the antenna conductor wherein the chip module is arranged in or on the antenna module and the coupling loop is inductively coupled to the antenna conductor, the second carrier is a flexible sheetlike structure composed of gauze, the gauze comprises textile, electrically non-conductive threads or fibres (16, 18) arranged in the manner of a grid and containing thread- or fibre-free interspaces, and in that said interspaces are pervaded by the elastomeric material and interconnect the surfaces (28, 30) of the elastomeric material that adjoin the flat sides of the second carrier through the gauze.
A Medium Voltage line switch contact arrangement comprising a fixed contact and a movable contact assembly operatively connectable to said fixed contact, wherein the movable contact assembly comprises a first and a second substantially flat blades parallel to each other, said flat blades (31, 32) being pivotally mounted on a support and rotationally connectable to said fixed contact; wherein the fixed contact comprises a contact element having a substantially flat body having a rectangular shape with a corner cut away and first and a second contact surfaces delimited by a base connected to a contact holder and by a first, a second, a third and a fourth segments, wherein said first segment is substantially perpendicular to said third segment, wherein said second segment faces said movable contact assembly when said blades (31, 32) are in proximity of the substantially flat body, wherein said first and fourth segments are substantially parallel to each other and substantially perpendicular to said third segment, wherein said third segment is substantially parallel to said base, wherein said second segment connects said first segment to said third segment and is inclined toward said fourth segment so that the length / of the third segment is shorter than the width L of said substantially flat body as measured in correspondence of the connection point between said first and second segment, wherein said flat body has rounded corners between said second and third segments and between said third and fourth segments, characterized in that said flat body has rounded edges defined by said first, second, third and fourth segments, wherein the length / of said third segment is between 0.75L and 0.85L, where L is the width of said substantially flat body, wherein the distance d between the third segment and the connection point between the first and the second segments is between 0.30D and 0.40D, where D is the length of the substantially flat body as measured from the base to the third segment.
A process for spray drying poly[(methyl methacrylate)-co-(methacrylic acid)] (PMMAMA) comprising: (a) providing a spray solution comprising an active agent and at least 5 wt% PMMAMA dissolved in a solvent, the solvent selected from methanol, ethanol, mixtures of acetone and water, mixtures of dichloromethane and ethanol, mixtures of dichloromethane and methanol, mixtures of ethanol and water, mixtures of methanol and water, mixtures of methanol and acetone, mixtures of methanol, acetone and water, mixtures of methyl ethyl ketone and water, or mixtures of tetrahydrofuran and water; (b) introducing the spray solution into an atomizer at a feed rate of at least 3 kg/hr and atomizing the spray solution into a chamber to form droplets; (c) introducing a drying gas into the chamber at a flow rate of at least 72 kg/hr to dry the droplets and form a powder comprising PMMAMA containing particles, wherein a ratio of the drying gas flow rate to the spray solution feed rate is at least 5; and (d) collecting the powder from the chamber, wherein the temperature of the drying gas at an outlet of the chamber is < 55 °C, wherein at least 95% of the PMMAMA-containing particles have an aspect ratio < 10. (a) providing a spray solution comprising an active agent and at least 5 wt% PMMAMA dissolved in a solvent, the solvent selected from methanol, ethanol, mixtures of acetone and water, mixtures of dichloromethane and ethanol, mixtures of dichloromethane and methanol, mixtures of ethanol and water, mixtures of methanol and water, mixtures of methanol and acetone, mixtures of methanol, acetone and water, mixtures of methyl ethyl ketone and water, or mixtures of tetrahydrofuran and water; (b) introducing the spray solution into an atomizer at a feed rate of at least 3 kg/hr and atomizing the spray solution into a chamber to form droplets; (c) introducing a drying gas into the chamber at a flow rate of at least 72 kg/hr to dry the droplets and form a powder comprising PMMAMA containing particles, wherein a ratio of the drying gas flow rate to the spray solution feed rate is at least 5; and (d) collecting the powder from the chamber, wherein the temperature of the drying gas at an outlet of the chamber is < 55 °C,
A method for producing an epitaxial silicon carbide single crystal wafer, the method comprising: supplying a silicon-based material gas and a carbon-based material gas to an inside of an epitaxial growth reactor and epitaxially growing silicon carbide on a silicon carbide single crystal substrate using a thermal CVD method to produce an epitaxial silicon carbide single crystal wafer, the method comprises, before starting epitaxial growth, supplying an etching gas inside the epitaxial growth reactor to etch the surface of the silicon carbide single crystal substrate by 500 nm to 1000 nm so that the arithmetic average roughness Ra value becomes 0.5 nm to 3.0 nm and to form step bunching which starts from the basal plane dislocations and has a length of 0.5 to 1 mm on the surface of said silicon carbide single crystal substrate. supplying a silicon-based material gas and a carbon-based material gas to an inside of an epitaxial growth reactor and epitaxially growing silicon carbide on a silicon carbide single crystal substrate using a thermal CVD method to produce an epitaxial silicon carbide single crystal wafer, the method comprises, before starting epitaxial growth, supplying an etching gas inside the epitaxial growth reactor to etch the surface of the silicon carbide single crystal substrate by 500 nm to 1000 nm so that the arithmetic average roughness Ra value becomes 0.5 nm to 3.0 nm and to form step bunching which starts from the basal plane dislocations and has a length of 0.5 to 1 mm on the surface of said silicon carbide single crystal substrate.
Method for producing an extruded food product, characterised in that, in order to deposit inclusions on the surface, said method comprises, downstream of at least one extrusion die producing an extruded, expanded and cooked strip of dough, the following successive steps: a) depositing on the surface at least one layer of a food-grade adhesive that adheres instantly; b) depositing on the surface inclusions comprising at least one type of inclusion; c) drying the strip of dough; d) breaking or cutting the strip of dough into individual extruded breads; e) cooling the individual extruded breads; and in that said method comprises, before a) and between b) and c), rolling the strip of extruded dough, in that said at least one type of inclusion does not comprise inclusions which can adhere to the support by themselves either at ambient temperature or in the melted state such as chocolate chips, caramel or melted sugars, cheeses in the liquid or semi-liquid state which would stick by themselves to the support without the help of an adhesive agent. a) depositing on the surface at least one layer of a food-grade adhesive that adheres instantly; b) depositing on the surface inclusions comprising at least one type of inclusion; c) drying the strip of dough; d) breaking or cutting the strip of dough into individual extruded breads; e) cooling the individual extruded breads; and
A method performed by a user equipment (102, 200), the method comprising: receiving data with a first bandwidth configuration at a first subframe on a first downlink channel of an frequency-division duplexing, FDD, pair; transmitting data with a second bandwidth configuration at a second subframe on a first uplink channel of the FDD pair; receiving data including an indicator with a third bandwidth configuration at a first subframe on a second downlink channel, the second downlink channel having a different carrier frequency than the channels of the FDD pair, wherein a guard band is adjacent to the second downlink channel and at least one channel of the FDD pair; determining that the indicator includes a field indicating a different bandwidth configuration for at least one channel, the different bandwidth configuration being selected from a set of predetermined bandwidth configurations and the at least one channel being at least one of the at least one FDD pair channel adjacent to the guard band or the second downlink channel, wherein the different bandwidth configuration is provided in response to a determination that there is a likelihood of interference or that there will be interference between the channels in a subsequent second subframe and the different bandwidth configuration corresponds to a reduced allocation of subcarrier resources in the at least one channel to increase a frequency width of the guard band; and applying the different bandwidth configuration at the second subframe for at least one of transmitting and receiving on the at least one channel. receiving data with a first bandwidth configuration at a first subframe on a first downlink channel of an frequency-division duplexing, FDD, pair; transmitting data with a second bandwidth configuration at a second subframe on a first uplink channel of the FDD pair; receiving data including an indicator with a third bandwidth configuration at a first subframe on a second downlink channel, the second downlink channel having a different carrier frequency than the channels of the FDD pair, wherein a guard band is adjacent to the second downlink channel and at least one channel of the FDD pair; determining that the indicator includes a field indicating a different bandwidth configuration for at least one channel, the different bandwidth configuration being selected from a set of predetermined bandwidth configurations and the at least one channel being at least one of the at least one FDD pair channel adjacent to the guard band or the second downlink channel, wherein the different bandwidth configuration is provided in response to a determination that there is a likelihood of interference or that there will be interference between the channels in a subsequent second subframe and the different bandwidth configuration corresponds to a reduced allocation of subcarrier resources in the at least one channel to increase a frequency width of the guard band; and applying the different bandwidth configuration at the second subframe for at least one of transmitting and receiving on the at least one channel.
A ligament assembly comprising a first ligament anchor connected to a second ligament anchor by a ligament, a resilient element being associated with the first ligament anchor and a ligament tension adjuster (44, 50) being associated with the second ligament anchor, the ligament comprising a shoulder with a face that is substantially annular and substantially planar, the shoulder comprising a discrete element which is attached to the ligament.
A dyeing system configured to dye a resin body, the dyeing system comprising: a conveyance device configured to convey a conveyance unit including the resin body; a reader configured to read information relating to the conveyance unit; a dye fixing device configured to heat the resin body in the conveyance unit conveyed by the conveyance device and configured to fix a dye adhering to a surface of the resin body, on the resin body; and a controller, wherein: the dye fixing device is provided with an electromagnetic wave generator configured to generate an electromagnetic wave; the dye fixing device is configured to irradiate the electromagnetic wave to the resin body to heat the resin body; the electromagnetic wave generator is a laser beam source configured to emit a laser beam; the dye fixing device is provided with a scanning unit configured to scan the resin body with the laser beam emitted from the laser beam source; the controller is configured to execute a parameter acquisition step that acquires a parameter for a process executed to the resin body in the conveyance unit, based on the information read by the reader; and when the controller causes the dye fixing device to heat the resin body in the conveyance unit of which the information is read, the controller is configured to execute a fixing control step that controls the dye fixing device based on the acquired parameter and configured to control the scanning unit based on the acquired parameter. a conveyance device configured to convey a conveyance unit including the resin body; a reader configured to read information relating to the conveyance unit; a dye fixing device configured to heat the resin body in the conveyance unit conveyed by the conveyance device and configured to fix a dye adhering to a surface of the resin body, on the resin body; and a controller, the dye fixing device is provided with an electromagnetic wave generator configured to generate an electromagnetic wave; the dye fixing device is configured to irradiate the electromagnetic wave to the resin body to heat the resin body; the electromagnetic wave generator is a laser beam source configured to emit a laser beam; the dye fixing device is provided with a scanning unit configured to scan the resin body with the laser beam emitted from the laser beam source; the controller is configured to execute a parameter acquisition step that acquires a parameter for a process executed to the resin body in the conveyance unit, based on the information read by the reader; and when the controller causes the dye fixing device to heat the resin body in the conveyance unit of which the information is read, the controller is configured to execute a fixing control step that controls the dye fixing device based on the acquired parameter and configured to control the scanning unit based on the acquired parameter.
Process for detection of cells in a liquid sample, comprising the following steps: i) filtration of the liquid sample through a porous membrane that is suitable for retaining cells to be detected, wherein at least one subregion of a support is configured as a transparent, structured supporting body and wherein the membrane is arranged in a flat configuration on the transparent supporting body in such a way that cells to be detected are retained on at least part of the surface of the membrane and that at least part of the sample liquid passes through the membrane, ii) application of a liquid optical medium having a refractive index which differs by no more than 0.1 from the refractive index of the supporting body, wherein the liquid optical medium is applied in such a manner that it fills the interstices that result from the structuring of the supporting body, between the membrane and the supporting body, iii) optical measurement of at least a subarea of the membrane in order to detect cells to be detected. i) filtration of the liquid sample through a porous membrane that is suitable for retaining cells to be detected, wherein at least one subregion of a support is configured as a transparent, structured supporting body and wherein the membrane is arranged in a flat configuration on the transparent supporting body in such a way that cells to be detected are retained on at least part of the surface of the membrane and that at least part of the sample liquid passes through the membrane, ii) application of a liquid optical medium having a refractive index which differs by no more than 0.1 from the refractive index of the supporting body, wherein the liquid optical medium is applied in such a manner that it fills the interstices that result from the structuring of the supporting body, between the membrane and the supporting body, iii) optical measurement of at least a subarea of the membrane in order to detect cells to be detected.
An apparatus comprising: a single camera sensor; and multiple optical arrangements for focusing images of a three-dimensional space from different divergent perspectives onto the camera sensor configured for spatially resolved sensing of respective images from different divergent perspectives, wherein: each optical arrangement is configured to provide an optical path from a respective perspective, defined by the optical arrangement, towards a target optical area such that optical paths from different divergent perspectives converge towards the target area; and each of the multiple optical arrangements comprises a prism having two facets on an input side and a focusing lens on an output side, wherein the apparatus is configured such that optical paths from two, different perspectives are incident on different faces of a respective prism and converge towards a respective single focusing lens. a single camera sensor; and multiple optical arrangements for focusing images of a three-dimensional space from different divergent perspectives onto the camera sensor configured for spatially resolved sensing of respective images from different divergent perspectives, wherein: each optical arrangement is configured to provide an optical path from a respective perspective, defined by the optical arrangement, towards a target optical area such that optical paths from different divergent perspectives converge towards the target area; and each of the multiple optical arrangements comprises a prism having two facets on an input side and a focusing lens on an output side, wherein the apparatus is configured such that optical paths from two, different perspectives are incident on different faces of a respective prism and converge towards a respective single focusing lens. each optical arrangement is configured to provide an optical path from a respective perspective, defined by the optical arrangement, towards a target optical area such that optical paths from different divergent perspectives converge towards the target area; and each of the multiple optical arrangements comprises a prism having two facets on an input side and a focusing lens on an output side, wherein the apparatus is configured such that optical paths from two, different perspectives are incident on different faces of a respective prism and converge towards a respective single focusing lens.
A polymer thick film transparent conductive composition comprising: (a) 10-70 wt% of a conductive oxide powder selected from the group consisting of indium tin oxide powder, antimony tin oxide powder and mixtures thereof; (b) 10-50 wt% of a first organic medium comprising 10-50 wt% thermoplastic urethane resin dissolved in a first organic solvent, wherein the weight percent of the thermoplastic urethane resin is based on the total weight of the first organic medium; and (c) 10-50 wt% of a second organic medium comprising 10-50 wt% thermoplastic polyhydroxyether resin dissolved in a second organic solvent; wherein the weight percent of said conductive oxide powder, said first organic medium and said second organic medium are based on the total weight of said polymer thick film conductive composition. (a) 10-70 wt% of a conductive oxide powder selected from the group consisting of indium tin oxide powder, antimony tin oxide powder and mixtures thereof; (b) 10-50 wt% of a first organic medium comprising 10-50 wt% thermoplastic urethane resin dissolved in a first organic solvent, wherein the weight percent of the thermoplastic urethane resin is based on the total weight of the first organic medium; and (c) 10-50 wt% of a second organic medium comprising 10-50 wt% thermoplastic polyhydroxyether resin dissolved in a second organic solvent;