mhurhangee/ep-ind-claims huggingface dataset:
An integrated circuit die for an ultrasound system, the integrated circuit die comprising: a silicon or silicon on insulator or silicon germanium substrate defining a plurality of circuit elements; a sensor region on the substrate, the sensor region comprising a layer stack defining a plurality of ultrasound transducer cells; and an interposer region on the substrate adjacent to the sensor region, the interposer region comprising a further layer stack including conductive connections to the circuit elements and the ultrasound transducer cells, the conductive connections connected to a plurality of conductive contact regions on an upper surface of the interposer region, the conductive contact regions including external contacts for contacting the integrated circuit die to a connection cable and mounting pads for mounting a discrete passive component on the upper surface, the integrated circuit die characterized by comprising at least one passive component mounted on the mounting pads on said upper surface, wherein the at least one passive component comprises a decoupling or bypass capacitor. a silicon or silicon on insulator or silicon germanium substrate defining a plurality of circuit elements; a sensor region on the substrate, the sensor region comprising a layer stack defining a plurality of ultrasound transducer cells; and an interposer region on the substrate adjacent to the sensor region, the interposer region comprising a further layer stack including conductive connections to the circuit elements and the ultrasound transducer cells, the conductive connections connected to a plurality of conductive contact regions on an upper surface of the interposer region, the conductive contact regions including external contacts for contacting the integrated circuit die to a connection cable and mounting pads for mounting a discrete passive component on the upper surface, the integrated circuit die characterized by comprising at least one passive component mounted on the mounting pads on said upper surface, wherein the at least one passive component comprises a decoupling or bypass capacitor.
Three-phase generator, having a protective cap which is fastened to it, wherein the said protective cap has a substantially circular shape and has a plurality of fastening points and has an approximately sector-like cutout which starts from the outer circumference of the protective cap, and two fastening points (15, 16), which are formed from a hole in each case, are arranged approximately diametrically opposite, wherein the holes of the fastening points (15, 16) have a centre point which is an operative centre point, wherein a common connecting line between the operative centre points of the two fastening points (15, 16) is offset from the diameter by 0.07 to 0.16 times the radius in the direction of the cutout and a further fastening point is arranged starting from the cutout on the other side of the connecting line.
A spacecraft, comprising: one of an upper core structure and a lower core structure; the upper core structure including an upper cylinder configured to support an upper spacecraft of a dual-manifest launch configuration; the lower core structure including a lower cylinder configured to support a lower spacecraft with the upper cylinder mounted on top of the lower cylinder; the upper cylinder having an upper cylinder inner diameter being substantially similar to a lower cylinder inner diameter, and the spacecraft further comprises a propellant tank housed within each one of the upper cylinder and the lower cylinder, characterised in that: the lower cylinder is formed as a solid laminate of fiber-reinforced polymer matrix material, and the upper cylinder is formed as a composite sandwich. one of an upper core structure and a lower core structure; the upper core structure including an upper cylinder configured to support an upper spacecraft of a dual-manifest launch configuration; the lower core structure including a lower cylinder configured to support a lower spacecraft with the upper cylinder mounted on top of the lower cylinder; the upper cylinder having an upper cylinder inner diameter being substantially similar to a lower cylinder inner diameter, and the spacecraft further comprises a propellant tank housed within each one of the upper cylinder and the lower cylinder, characterised in that: the lower cylinder is formed as a solid laminate of fiber-reinforced polymer matrix material, and the upper cylinder is formed as a composite sandwich. the lower cylinder is formed as a solid laminate of fiber-reinforced polymer matrix material, and the upper cylinder is formed as a composite sandwich.
A resin composition for preparing foamed rigid polymer products, said composition consisting of a) at least one polymer resin, wherein the at least one polymer resin is polyvinyl chloride and has a K-value of between 50 and 68, wherein the K-value denotes the degree of polymerization or molecular weight and is calculated from the inherent viscosity, b) a surface-treated calcium carbonate having a weight median particle diameter d 50 from 0.5 μm to 0.9 μm, measured according to the sedimentation method, in an amount of at least 15 parts per hundred parts of the at least one polymer resin (phr), c) a blowing agent in an amount of between 0.5 phr and 0.7 phr and d) an acrylic impact modifier, a processing aid comprising a mixture of a low molecular weight acrylic polymer and a high molecular weight acrylic polymer having a mole ratio of 1:1, a Ca-Zn-containing stabilizer and further additives selected from a lubricant, calcium stearate and titanium dioxide, wherein the low molecular weight acrylic polymer has a specific gravity of about 1.10 g/cm 3 and the high molecular weight acrylic polymer has a specific gravity of about 1.13 g/cm 3. a) at least one polymer resin, wherein the at least one polymer resin is polyvinyl chloride and has a K-value of between 50 and 68, wherein the K-value denotes the degree of polymerization or molecular weight and is calculated from the inherent viscosity, b) a surface-treated calcium carbonate having a weight median particle diameter d 50 from 0.5 μm to 0.9 μm, measured according to the sedimentation method, in an amount of at least 15 parts per hundred parts of the at least one polymer resin (phr), c) a blowing agent in an amount of between 0.5 phr and 0.7 phr and d) an acrylic impact modifier, a processing aid comprising a mixture of a low molecular weight acrylic polymer and a high molecular weight acrylic polymer having a mole ratio of 1:1, a Ca-Zn-containing stabilizer and further additives selected from a lubricant, calcium stearate and titanium dioxide, wherein the low molecular weight acrylic polymer has a specific gravity of about 1.10 g/cm 3 and the high molecular weight acrylic polymer has a specific gravity of about 1.13 g/cm 3.
A method of forming a semiconductor structure, comprising: providing a silicon carbide layer having a crystallographic axis; heating the silicon carbide layer to a temperature of 300 °C or more; implanting dopant ions into the heated silicon carbide layer that is at the heated temperature; and annealing the silicon carbide layer at a time-temperature product of less than 30,000 °C-hours to activate the implanted ions; characterized in that dopant ions are implanted into the heated silicon carbide layer at an implant angle between a direction of implantation and the crystallographic axis of less than 2°. providing a silicon carbide layer having a crystallographic axis; heating the silicon carbide layer to a temperature of 300 °C or more; implanting dopant ions into the heated silicon carbide layer that is at the heated temperature; and annealing the silicon carbide layer at a time-temperature product of less than 30,000 °C-hours to activate the implanted ions; characterized in that dopant ions are implanted into the heated silicon carbide layer at an implant angle between a direction of implantation and the crystallographic axis of less than 2°.
Method for pulling a single silicon crystal having a resistivity of not more than 20 mΩcm by the Czochralski process from a melt, which comprises pulling a first section of a neck at a first pulling velocity whereby the diameter of the first section of the neck, in comparison to the diameter of a seed crystal, tapers at a rate of not less than 0.3 mm per mm neck length to a target diameter of not more than 5 mm; pulling a second section of a neck at a second pulling velocity of less than 0.2 mm/min over a period of not less than 3 min, without the diameter of the second section of the neck increasing to more than 5.5 mm; and pulling a third section of the neck at a third pulling velocity of more than 2 mm/min. pulling a first section of a neck at a first pulling velocity whereby the diameter of the first section of the neck, in comparison to the diameter of a seed crystal, tapers at a rate of not less than 0.3 mm per mm neck length to a target diameter of not more than 5 mm; pulling a second section of a neck at a second pulling velocity of less than 0.2 mm/min over a period of not less than 3 min, without the diameter of the second section of the neck increasing to more than 5.5 mm; and pulling a third section of the neck at a third pulling velocity of more than 2 mm/min.
A method comprising: defining at least one intended cutting line on a medium, defining a target (14, 114), controlling a print engine to print the target on the medium, and wherein the target comprises at least one graphical element which defines at least one reference distance measure and wherein the target is centered at the intended cutting line or is positioned at a defined distance from the intended cutting line wherein the at least one graphical element of the target comprises a ring, which is intersected by the at least one intended cutting line, wherein a radius of the ring corresponds to a reference distance measure. defining at least one intended cutting line on a medium, defining a target (14, 114), controlling a print engine to print the target on the medium, and wherein the target comprises at least one graphical element which defines at least one reference distance measure and wherein the target is centered at the intended cutting line or is positioned at a defined distance from the intended cutting line wherein the at least one graphical element of the target comprises a ring, which is intersected by the at least one intended cutting line, wherein a radius of the ring corresponds to a reference distance measure.
A wireless communication device for communicating a video program comprising a plurality of frames via UDP to a display device, usable in a wireless local area network, comprising: circuitry (201, 215) configured to: determine a radio condition according to at least one of: a frequency of a request for retransmission from the display device, RSSI of a radio signal received from the display device, or measurement information from the display device; determine whether a format of the video program is to be changed or not based on the radio condition; transmit information to the display device via TCP/IP, the information indicating a frame in the plurality of frames when a format of the video program is changed; and transmit the video program with a changed format at the frame via UDP to the display device after transmitting the information, wherein the information refers to a decoding time stamp or presentation time stamp included in a header field of a packet of the frame. determine a radio condition according to at least one of: a frequency of a request for retransmission from the display device, RSSI of a radio signal received from the display device, or measurement information from the display device; a frequency of a request for retransmission from the display device, RSSI of a radio signal received from the display device, or measurement information from the display device; determine whether a format of the video program is to be changed or not based on the radio condition; transmit information to the display device via TCP/IP, the information indicating a frame in the plurality of frames when a format of the video program is changed; and transmit the video program with a changed format at the frame via UDP to the display device after transmitting the information, wherein the information refers to a decoding time stamp or presentation time stamp included in a header field of a packet of the frame.
A computer-implemented method for information protection, comprising: determining one or more data inputs and one or more data outputs for a transaction, wherein the one or more data inputs respectively correspond to one or more input asset types, and the one or more data outputs respectively correspond to one or more output asset types; hashing the one or more input asset types and the one or more output asset types; generating a plurality of commitment values by committing each of the hashed input asset types and the hashed output asset types according to a commitment scheme, wherein the commitment scheme is based on a basepoint G, and a plurality of blinding factors respectively corresponding to the input asset types and the output asset types; generating a plurality of differences respectively between a plurality of pairs of the commitment values; concatenating the generated plurality of differences; generating a hash value by hashing the concatenated plurality of differences; generating a parameter R based at least on the hash value and differences between a plurality of pairs of the blinding factors; and submitting the transaction to one or more nodes in a blockchain network with disclosure of the parameter R and without disclosure of the input asset types and output asset types for the nodes to verify consistency between the input asset types and the output asset types without knowledge of the input asset types and output asset types. determining one or more data inputs and one or more data outputs for a transaction, wherein the one or more data inputs respectively correspond to one or more input asset types, and the one or more data outputs respectively correspond to one or more output asset types; hashing the one or more input asset types and the one or more output asset types; generating a plurality of commitment values by committing each of the hashed input asset types and the hashed output asset types according to a commitment scheme, wherein the commitment scheme is based on a basepoint G, and a plurality of blinding factors respectively corresponding to the input asset types and the output asset types; generating a plurality of differences respectively between a plurality of pairs of the commitment values; concatenating the generated plurality of differences; generating a hash value by hashing the concatenated plurality of differences; generating a parameter R based at least on the hash value and differences between a plurality of pairs of the blinding factors; and submitting the transaction to one or more nodes in a blockchain network with disclosure of the parameter R and without disclosure of the input asset types and output asset types for the nodes to verify consistency between the input asset types and the output asset types without knowledge of the input asset types and output asset types.
Process for producing an aqueous, particle-stabilized Pickering emulsion of a material amenable to polyaddition, to polycondensation or to chain polymerization and selected from siloxane and silane, by mixing an aqueous phase, a material amenable to polyaddition, to polycondensation or to chain polymerization and selected from siloxane and silane, and a particulate silicon oxide solid, forming droplets having a mean diameter d50 of at most 9 μm and comprising the material and the particulate solid, with the proviso that in the particle-stabilized Pickering emulsion the mass ratio Q1 = m /m *100 is any number from 3 to 25, the mass ratio Q2 = m /(m +m)*100 is any number from 50 to 75, and the relationship between Q1 and Q2 is Q 2 = − 1.56 * Q 1 + Q 3, where Q3 is a number between 77.0 and 89.0, where the d 50 is determined using a Camsizer X2 from Retsch Technology (measurement principle: dynamic image analysis according to ISO 13322-2, measurement range: 0.8 um - 30 mm, type of analysis: dry measurement of powders and granules, dispersing pressure = 2 bar). by mixing an aqueous phase, a material amenable to polyaddition, to polycondensation or to chain polymerization and selected from siloxane and silane, and a particulate silicon oxide solid, forming droplets having a mean diameter d50 of at most 9 μm and comprising the material and the particulate solid, with the proviso that in the particle-stabilized Pickering emulsion the mass ratio Q1 = m /m *100 is any number from 3 to 25, the mass ratio Q2 = m /(m +m)*100 is any number from 50 to 75, and the relationship between Q1 and Q2 is Q 2 = − 1.56 * Q 1 + Q 3, where Q3 is a number between 77.0 and 89.0, where the d 50 is determined using a Camsizer X2 from Retsch Technology (measurement principle: dynamic image analysis according to ISO 13322-2, measurement range: 0.8 um - 30 mm, type of analysis: dry measurement of powders and granules, dispersing pressure = 2 bar).
A display device, comprising: a substrate including a display area and a non-display area surrounding the display area; a plurality of pixels formed in the display area; a plurality of signal lines formed over the substrate and electrically connected to the pixels, wherein the signal lines include a plurality of gate lines (S1, S2, Sn-1, Sn) and a plurality of data lines (D1a, D1b, D2, D3, D4, Dm-3, Dm-2, Dm-1, Dma, Dmb) formed over the substrate; and an encapsulation layer formed over the substrate and disposed over the whole display area and a portion of the non-display area surrounding the display area, and at least a first crack sensing line (CD1, CD2) electrically connected to a first one of the data lines (D1b) and disposed in the non-display area, characterized in that the first crack sensing line (CD1, CD2) is formed on an external surface of the encapsulation layer opposite to an internal surface facing the substrate and overlaps the encapsulation layer. a substrate including a display area and a non-display area surrounding the display area; a plurality of pixels formed in the display area; a plurality of signal lines formed over the substrate and electrically connected to the pixels, wherein the signal lines include a plurality of gate lines (S1, S2, Sn-1, Sn) and a plurality of data lines (D1a, D1b, D2, D3, D4, Dm-3, Dm-2, Dm-1, Dma, Dmb) formed over the substrate; and an encapsulation layer formed over the substrate and disposed over the whole display area and a portion of the non-display area surrounding the display area, and at least a first crack sensing line (CD1, CD2) electrically connected to a first one of the data lines (D1b) and disposed in the non-display area, characterized in that the first crack sensing line (CD1, CD2) is formed on an external surface of the encapsulation layer opposite to an internal surface facing the substrate and overlaps the encapsulation layer.
An assembly for plasma generation comprising: (a) a cathode plate comprising a fixed cathode tip, said cathode tip being integral part of said cathode plate; (b) at least one cascade plate; (c) at least one separator plate disposed between said cathode plate and said cascade plate; (d) an anode plate; and (e) an inlet for a gas; characterized in that the assembly comprises a single circuit that comprises at least one cooling medium inlet and one cooling medium outlet and wherein the single circuit comprises individual channels in the cathode plate, the at least one cascade plate, the at least one separator plate, and the anode plate each including an inlet and an outlet for a cooling medium, wherein the cooling medium comprises water, wherein the cathode plate comprises an inlet hole and an outlet hole; wherein the separator plate comprises an inlet hole and an outlet hole, wherein said inlet hole and said outlet hole are aligned with the inlet hole and the outlet hole, respectively; wherein the cascade plate comprises an inlet hole and an outlet hole, wherein said inlet hole and said outlet hole are aligned with the inlet holes and and the outlet holes and, respectively; wherein the anode plate comprises an inlet hole and an outlet hole, wherein said inlet hole and said outlet hole are aligned with the inlet holes,, and and the outlet holes,, and, respectively; wherein said cathode plate, separator plate, cascade plate and anode plate are "electrically isolated" from one another, and wherein said electrically isolated cathode plate, separator plate, and cascade plate define a plasma generation chamber, said cathode tip being disposed within said plasma generation chamber. (a) a cathode plate comprising a fixed cathode tip, said cathode tip being integral part of said cathode plate; (b) at least one cascade plate; (c) at least one separator plate disposed between said cathode plate and said cascade plate; (d) an anode plate; and (e) an inlet for a gas; characterized in that the assembly comprises a single circuit that comprises at least one cooling medium inlet and one cooling medium outlet and wherein the single circuit comprises individual channels in the cathode plate, the at least one cascade plate, the at least one separator plate, and the anode plate each including an inlet and an outlet for a cooling medium, wherein the cooling medium comprises water,
A hand-over method performed in a personal basic service set (PBSS) including a plurality of stations and one original coordinator, the method comprising: receiving an association request frame comprising PBSS control point capability information from each of the plurality of stations, the association request frame requesting to associate to the PBSS; transmitting an association response frame to each of the stations indicating whether the association request received from each of the stations is approved; determining a priority to be a new coordinator of the plurality of stations based on the PCP capability information and broadcasting the determined priority to the plurality of stations, wherein the priority is determined in order to appoint the new coordinator for the plurality of stations included in the PBSS; and performing hand-over between the original coordinator and one of the plurality of stations according to the determined priority wherein the PCP capability information comprises information regarding whether the station supports a network clustering function. receiving an association request frame comprising PBSS control point capability information from each of the plurality of stations, the association request frame requesting to associate to the PBSS; transmitting an association response frame to each of the stations indicating whether the association request received from each of the stations is approved; determining a priority to be a new coordinator of the plurality of stations based on the PCP capability information and broadcasting the determined priority to the plurality of stations, wherein the priority is determined in order to appoint the new coordinator for the plurality of stations included in the PBSS; and performing hand-over between the original coordinator and one of the plurality of stations according to the determined priority wherein the PCP capability information comprises information regarding whether the station supports a network clustering function.