mhurhangee/ep-ind-claims huggingface dataset:
A method of transmitting an uplink signal by a user equipment, UE, in a wireless communication system supporting an unlicensed band, the method comprising: transmitting a physical uplink shared channel, PUSCH, over at least one interlace among a plurality of interlaces in the unlicensed band, wherein one interlace among the plurality of interlaces is composed of a plurality of resource blocks, RBs, having an identical RB interval between consecutive RBs within the one interlace in a unit of a first frequency bandwidth, wherein the unit of the first frequency bandwidth is 20 MHz, characterized in that based on a configured subcarrier spacing being 15 kHz, wherein the identical RB interval is configured to 10 RBs, based on the configured subcarrier spacing being 30 kHz, wherein the identical RB interval is configured to 5 RBs, and, wherein, based on a transform precoding being enabled through a Radio Resource Control, RRC, signaling, the number of RBs through which the PUSCH is transmitted in the at least one interlace is a multiple of at least one of 2, 3, and 5 that is not greater than the number of RBs allocated to the at least one interlace. transmitting a physical uplink shared channel, PUSCH, over at least one interlace among a plurality of interlaces in the unlicensed band, wherein one interlace among the plurality of interlaces is composed of a plurality of resource blocks, RBs, having an identical RB interval between consecutive RBs within the one interlace in a unit of a first frequency bandwidth, wherein the unit of the first frequency bandwidth is 20 MHz, characterized in that based on a configured subcarrier spacing being 15 kHz, wherein the identical RB interval is configured to 10 RBs, based on the configured subcarrier spacing being 30 kHz, wherein the identical RB interval is configured to 5 RBs, and, wherein, based on a transform precoding being enabled through a Radio Resource Control, RRC, signaling, the number of RBs through which the PUSCH is transmitted in the at least one interlace is a multiple of at least one of 2, 3, and 5 that is not greater than the number of RBs allocated to the at least one interlace.
A dispersion which is a colored resin particle dispersion having an oxidation-reduction potential, measured by using a silver/silver chloride reference electrode, of ≤ 300 mV, the dispersion comprises - colored resin particles comprising a colorant, a solid resin and a liquid organic compound having an acidic group, - a basic dispersant, and - a non-aqueous solvent. - colored resin particles comprising a colorant, a solid resin and a liquid organic compound having an acidic group, - a basic dispersant, and - a non-aqueous solvent.
Method for controlling an energy equivalence factor (s) representing the weighting applied between the infeed of energy of thermal origin and the infeed of energy of electrical origin in order to minimize at an operating point the overall energy consumption of a hybrid motor propulsion plant for a motor vehicle comprising a heat engine and at least one electric motor powered by a battery, characterized in that this factor is controlled in a discrete manner on the basis of the instantaneous state of energy of the battery ( soe k), on the basis of a target energy ( soe target) and on the basis of the running conditions of the vehicle, and has an integrated term regarding the estimation of the state of energy of the battery, which is dependent on the difference (soe target - soe k) between the target and the instantaneous state of energy of the battery.
A light diffuser to receive first light (Li) and emit scattered light (Ls), the light diffuser comprising: an incident surface to receive the first light (Li); a first light scattering portion including light scattering particles present in a medium, the first light scattering portion generating the scattered light (Ls) by guiding the received first light (Li) and scattering the received first light (Li) with the light scattering particles; and an emission surface to emit the scattered light (Ls), wherein a concentration of the light scattering particles in the light diffuser is distributed such that the concentration increases non-linearly and continuously or discontinuously with distance from an incident edge in a light guiding direction of the first light (Li), further comprising a light transmitting portion that does not include the light scattering particles in a medium, wherein a light guiding portion is configured to function as a light guiding path for the first light (Li) which is formed by the first light scattering portion and the light transmitting portion joined to the first light scattering portion, and characterized in that the first light scattering portion is a laminated structure of two or more diffusing films in which the light scattering particles are dispersed and that have different lengths in the light guiding direction of the first light (Li), the diffusing films having plate shapes, the lengths being lengths of the plate shapes. an incident surface to receive the first light (Li); a first light scattering portion including light scattering particles present in a medium, the first light scattering portion generating the scattered light (Ls) by guiding the received first light (Li) and scattering the received first light (Li) with the light scattering particles; and an emission surface to emit the scattered light (Ls), wherein a concentration of the light scattering particles in the light diffuser is distributed such that the concentration increases non-linearly and continuously or discontinuously with distance from an incident edge in a light guiding direction of the first light (Li), further comprising a light transmitting portion that does not include the light scattering particles in a medium, wherein a light guiding portion is configured to function as a light guiding path for the first light (Li) which is formed by the first light scattering portion and the light transmitting portion joined to the first light scattering portion, and characterized in that the first light scattering portion is a laminated structure of two or more diffusing films in which the light scattering particles are dispersed and that have different lengths in the light guiding direction of the first light (Li), the diffusing films having plate shapes, the lengths being lengths of the plate shapes.
A nutritional composition that comprises coagulating protein and anti-coagulating protein, for use in the prevention or treatment of intestinal discomfort resulting from coagulation of coagulating protein, wherein said coagulating protein coagulates in the stomach of a human to a lesser extent than if said anti-coagulating protein is not present in said stomach, wherein the coagulating protein comprises casein or caseinate, and wherein the anticoagulating protein is pea protein and/or soy protein, wherein the composition comprises 25 - 95 wt% coagulating protein based on total weight of protein in the composition and 5 - 75 wt% anti-coagulating protein based on total weight of protein in the composition.
Method for operating a control device for autonomous guidance of a motor vehicle, wherein a nominal speed is specified as a driving speed of the motor vehicle to be set by the control device and another vehicle, driving in front of the motor vehicle at a driving speed that is slower than the nominal speed, is detected by the control device by means of a detection device, wherein a difference in speed between a driving speed of the other vehicle and the nominal speed is greater than zero but less than a predetermined maximum value, characterized in that in this case an accumulator value is set to a starting value and a current speed value of the difference in speed is respectively detected in a number of successively performed test runs and on the basis of the speed value an advantage value is formed and the advantage value is added to the accumulator value and, if the accumulator value satisfies a predetermined overtaking criterion, an overtaking signal enabling an overtaking manoeuvre is generated, wherein, in a test run, it is detected that the speed value is 0 or the other vehicle is driving faster than the nominal speed, and in this case on the one hand the accumulator value is reset to the starting value and on the other hand at least one further test run is carried out. in this case an accumulator value is set to a starting value and a current speed value of the difference in speed is respectively detected in a number of successively performed test runs and on the basis of the speed value an advantage value is formed and the advantage value is added to the accumulator value and, if the accumulator value satisfies a predetermined overtaking criterion, an overtaking signal enabling an overtaking manoeuvre is generated, wherein, in a test run, it is detected that the speed value is 0 or the other vehicle is driving faster than the nominal speed, and in this case on the one hand the accumulator value is reset to the starting value and on the other hand at least one further test run is carried out.
Heart implant comprising a tubular attachment element to which a sheath or inflatable membrane is attached, the sheath or inflatable membrane being coaxially positioned around at least a part of the tubular attachment element, wherein the sheath or inflatable membrane forms a closure element for closing a remaining gap of closed native heart valve leaflets when situated in the valve annulus, said tubular attachment element having a lower end and an upper end, the upper end being split into strips forming an expandable cage being anchorable within the atrium of the heart via surface contact between an exterior surface of the expandable cage and an interior surface of the atrium; and characterized in that in an expanded state, the strips extend from the upper end towards the lower end of the tubular attachment element and form an expanded cage being positioned around at least an upper part of the tubular attachment element. a tubular attachment element to which a sheath or inflatable membrane is attached, the sheath or inflatable membrane being coaxially positioned around at least a part of the tubular attachment element, wherein the sheath or inflatable membrane forms a closure element for closing a remaining gap of closed native heart valve leaflets when situated in the valve annulus, said tubular attachment element having a lower end and an upper end, the upper end being split into strips forming an expandable cage being anchorable within the atrium of the heart via surface contact between an exterior surface of the expandable cage and an interior surface of the atrium; and characterized in that in an expanded state, the strips extend from the upper end towards the lower end of the tubular attachment element and form an expanded cage being positioned around at least an upper part of the tubular attachment element.
A target vehicle for mounting onto an ADAS testing platform, the target vehicle comprising: a base for mounting in a fixed position relative to the testing platform; characterised in that the target vehicle further comprises: a sensor arranged to measure a parameter relating to the dynamics of the target vehicle; a tiltable body for tilting relative to the base; and an actuation assembly arranged to adjust the tilt of the target vehicle in dependence on the output of the sensor. a sensor arranged to measure a parameter relating to the dynamics of the target vehicle; a tiltable body for tilting relative to the base; and an actuation assembly arranged to adjust the tilt of the target vehicle in dependence on the output of the sensor.
A catalyst component for the polymerization of olefins comprising Mg, Ti and an electron donor compound of the following formula in which R to R 4 groups, equal to or different from each other, are hydrogen, halogen or C 1 -C 15 hydrocarbon groups, optionally containing an heteroatom selected from halogen, P, S, N and Si, which may be linked to form a saturated or unsaturated mono or polycycle and R 5 groups are selected from C 1 -C 15 hydrocarbon groups optionally containing an heteroatom selected from halogen, P, S, N and Si.
A terminal-assembly, comprising: a wire-cable having an outer insulation-layer and an exposed-end extending beyond the outer insulation-layer; an electrical-terminal having a first-end and a second-end opposite the first-end; the first-end defining an attachment-zone bonded with the exposed-end; a housing having a second-cavity; a temperature-sensor disposed within the second-cavity, the temperature-sensor configured to detect a temperature of the electrical-terminal characterized in that the first-end having a generally T-shape; the first-end further defining a terminal-head extending from the attachment-zone toward the second-end along a mating-axis of the electrical-terminal and terminating at a first-shoulder, the terminal-head having a generally cylindrical-shape defining a first-diameter; the first-end further defining a shaft extending from the first-shoulder toward the second-end along the mating-axis and terminating at a second-shoulder, the shaft having the generally cylindrical-shape and defining a second-diameter, the second-diameter less than the first-diameter; a housing having a skirt that defines a first-cavity and a cap that defines a second-cavity overlaying the first-cavity, the first-end disposed within the first-cavity; the cap defining an aperture aligned with a lateral-axis of the housing; the first-cavity electrically isolated from the second-cavity by a partition extending along the lateral-axis, the partition overlaying the exposed-end of the wire-cable; the skirt extending from the partition toward the second-end of the electrical-terminal along the mating-axis and defining a slot configured to slideably engage the terminal-head; the skirt having locking-features configured to releasably lock around the shaft when the terminal-head is fully inserted into the slot; and the temperature-sensor is disposed within the second-cavity extending through the aperture and in direct contact with a first-portion of the partition. a wire-cable having an outer insulation-layer and an exposed-end extending beyond the outer insulation-layer; an electrical-terminal having a first-end and a second-end opposite the first-end; the first-end defining an attachment-zone bonded with the exposed-end; a housing having a second-cavity; a temperature-sensor disposed within the second-cavity, the temperature-sensor configured to detect a temperature of the electrical-terminal characterized in that
An apparatus comprising: a clock driver circuit to supply a clock signal to a clock network having parasitic network capacitance; a switch coupled to the clock network and coupled to receive the clock signal at an input node of the switch and supply the clock signal at an output node of the switch when the switch is closed; an inductor coupled in series with the switch, wherein when the switch is closed, a clock system, including the clock driver circuit, the clock network, the switch, and the inductor, is operable in a resonant mode, the inductor being in parallel with the parasitic network capacitance with the switch closed, and when the switch is open the clock system is operable in a non-resonant mode with the inductor being disconnected from the clock network; a first high impedance voltage source coupled to supply a first voltage to a first gate node of a first transistor of the switch; and a second high impedance voltage source coupled to supply a second voltage to a second gate node of a second transistor of the switch, the first and second transistors being coupled in parallel. a clock driver circuit to supply a clock signal to a clock network having parasitic network capacitance; a switch coupled to the clock network and coupled to receive the clock signal at an input node of the switch and supply the clock signal at an output node of the switch when the switch is closed; an inductor coupled in series with the switch, wherein when the switch is closed, a clock system, including the clock driver circuit, the clock network, the switch, and the inductor, is operable in a resonant mode, the inductor being in parallel with the parasitic network capacitance with the switch closed, and when the switch is open the clock system is operable in a non-resonant mode with the inductor being disconnected from the clock network; a first high impedance voltage source coupled to supply a first voltage to a first gate node of a first transistor of the switch; and a second high impedance voltage source coupled to supply a second voltage to a second gate node of a second transistor of the switch, the first and second transistors being coupled in parallel.
An assembly comprising: a PCB, an auxiliary adhesive dispensing apparatus, wherein the auxiliary adhesive dispensing apparatus comprises a fixing part, which fixes the auxiliary adhesive dispensing apparatus to the PCB, a shielding cover being a metal casing for providing a shield from external interference having an opening in a lateral side thereof, the shielding cover being mounted on the PCB, the auxiliary adhesive dispensing apparatus comprising: a concave flow guiding groove, that can be used as a channel for an adhesive to flow from an adhesive-injection opening of the auxiliary dispensing apparatus to reach a component covered by the shielding cover, through the lateral opening thereof; wherein the fixing part is a surface mount element; and wherein the adhesive-injection opening is arranged as a suction part which can be used to remove air inside the flow guiding groove through the adhesive-injection opening. a PCB, an auxiliary adhesive dispensing apparatus, wherein the auxiliary adhesive dispensing apparatus comprises a fixing part, which fixes the auxiliary adhesive dispensing apparatus to the PCB, a shielding cover being a metal casing for providing a shield from external interference having an opening in a lateral side thereof, the shielding cover being mounted on the PCB, the auxiliary adhesive dispensing apparatus comprising: a concave flow guiding groove, that can be used as a channel for an adhesive to flow from an adhesive-injection opening of the auxiliary dispensing apparatus to reach a component covered by the shielding cover, through the lateral opening thereof; wherein the fixing part is a surface mount element; and wherein the adhesive-injection opening is arranged as a suction part which can be used to remove air inside the flow guiding groove through the adhesive-injection opening. a concave flow guiding groove, that can be used as a channel for an adhesive to flow from an adhesive-injection opening of the auxiliary dispensing apparatus to reach a component covered by the shielding cover, through the lateral opening thereof; wherein the fixing part is a surface mount element; and wherein the adhesive-injection opening is arranged as a suction part which can be used to remove air inside the flow guiding groove through the adhesive-injection opening.
A method of forming a semiconductor die-on- semiconductor die assembly, the method comprising: forming a first external contact on a first semiconductor die; forming a first seed layer over the first semiconductor die including over the first external contact; forming a first photoresist layer over the first seed layer having a first opening and a second opening, wherein the first opening is over the first external contact; performing a plating step to cause formation of a first plated contact in the first opening and a peg in the second opening; removing the first photoresist layer; removing the first seed layer in areas adjacent to the first plated contact and the peg; forming a second external contact on a second semiconductor die; forming a second seed layer over the second semiconductor die including over the second external contact; forming a second photoresist layer over the second seed layer having a third opening and a ring opening, wherein the third opening is over the second external contact; performing a plating step to cause formation of a second plated contact in the third opening and a containing feature in the ring opening useful in defining a contained area useful in constraining movement between the first semiconductor die and the second semiconductor die; removing the second photoresist layer; removing the second seed layer in areas adjacent to the second plated contact and the containing feature; and placing the first semiconductor die in contact with the second semiconductor die such that the first plated contact is in contact with the second plated contact and the peg is within the contained area. forming a first external contact on a first semiconductor die; forming a first seed layer over the first semiconductor die including over the first external contact; forming a first photoresist layer over the first seed layer having a first opening and a second opening, wherein the first opening is over the first external contact; performing a plating step to cause formation of a first plated contact in the first opening and a peg in the second opening; removing the first photoresist layer; removing the first seed layer in areas adjacent to the first plated contact and the peg; forming a second external contact on a second semiconductor die; forming a second seed layer over the second semiconductor die including over the second external contact; forming a second photoresist layer over the second seed layer having a third opening and a ring opening, wherein the third opening is over the second external contact; performing a plating step to cause formation of a second plated contact in the third opening and a containing feature in the ring opening useful in defining a contained area useful in constraining movement between the first semiconductor die and the second semiconductor die; removing the second photoresist layer; removing the second seed layer in areas adjacent to the second plated contact and the containing feature; and placing the first semiconductor die in contact with the second semiconductor die such that the first plated contact is in contact with the second plated contact and the peg is within the contained area.