mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a user equipment, UE, for estimating interference on a first enhanced downlink control channel, EPDCCH, transmitted from a first network node, the method comprising: receiving the first EPDCCH, transmitted from the first network node; determining a first demodulation reference signal, DMRS, port used by the first network node and associated with the first EPDCCH; determining activity on a second DMRS port used by a second network node and associated with one of a second downlink control channel and a physical downlink shared channel, PDSCH, wherein a first DMRS is transmitted on the first DMRS port, a second DMRS is transmitted on the second DMRS port, and the first DMRS and the second DMRS are transmitted on a same set of resource elements, REs; and estimating the interference on the first EPDCCH based on the second DMRS port, wherein the second DMRS port is orthogonal to the first DMRS port, and wherein orthogonality between the first DMRS port and the second DMRS port is maintained by using at least one of a same EPDCCH virtual cell ID, a same cell ID or a same scrambling ID, to generate the same DMRS sequences for the DMRS ports. receiving the first EPDCCH, transmitted from the first network node; determining a first demodulation reference signal, DMRS, port used by the first network node and associated with the first EPDCCH; determining activity on a second DMRS port used by a second network node and associated with one of a second downlink control channel and a physical downlink shared channel, PDSCH, wherein a first DMRS is transmitted on the first DMRS port, a second DMRS is transmitted on the second DMRS port, and the first DMRS and the second DMRS are transmitted on a same set of resource elements, REs; and estimating the interference on the first EPDCCH based on the second DMRS port, wherein the second DMRS port is orthogonal to the first DMRS port, and wherein orthogonality between the first DMRS port and the second DMRS port is maintained by using at least one of a same EPDCCH virtual cell ID, a same cell ID or a same scrambling ID, to generate the same DMRS sequences for the DMRS ports.
A confectionary product, comprising: a. 5 - 95 wt.% polyphenol-gelatin complex containing up to 60 wt% water based on polyphenol and gelatin solids, having a polyphenol to gelatin weight ratio of 0.2:1 to 0.8:1; and b. 10-95 wt.% bulking agent selected from group consisting of erythritol, mannitol, hydrocolloid gums, modified starch, pectin, inulin, protein, protein salts, and combinations thereof; wherein the polyphenol and gelatin complex is made by mixing dry gelatin with a polyphenol and water solution; and wherein the confectionary product disintegrates during chewing under mouth conditions in 2 to 40 minutes. a. 5 - 95 wt.% polyphenol-gelatin complex containing up to 60 wt% water based on polyphenol and gelatin solids, having a polyphenol to gelatin weight ratio of 0.2:1 to 0.8:1; and b. 10-95 wt.% bulking agent selected from group consisting of erythritol, mannitol, hydrocolloid gums, modified starch, pectin, inulin, protein, protein salts, and combinations thereof;
A system for delivering a flow of gas to an airway of a patient, the system comprising: a gas flow generator that generates a flow of gas; a patient circuit coupled to the gas flow generator and comprising a conduit adapted to communicate the flow of gas to an airway of a patient; a sensor associated with the gas flow generator and/or the patient circuit and configured to measure the rate of the flow of the gas and generate flow signals based on the measured rate of flow; and a controller operatively connected with the gas flow generator and the sensor, the controller configured to control a pressure of the flow of gas provided to the patient, wherein the controller receives the flow signals from the sensor, characterized in that the controller is further configured to determine a rate of change in the flow of the gas provided to the patient and to calculate a total pressure drop over the patient circuit that is due to the rate of change in the flow of the gas, and in that the controller is configured to modify or compensate the pressure of the flow of gas provided to the patient as a function of said total pressure drop to compensate for the pressure drop over the patient circuit due to a resistive and an inductive effect of the dynamic flow through the conduit. a gas flow generator that generates a flow of gas; a patient circuit coupled to the gas flow generator and comprising a conduit adapted to communicate the flow of gas to an airway of a patient; a sensor associated with the gas flow generator and/or the patient circuit and configured to measure the rate of the flow of the gas and generate flow signals based on the measured rate of flow; and a controller operatively connected with the gas flow generator and the sensor, the controller configured to control a pressure of the flow of gas provided to the patient, wherein the controller receives the flow signals from the sensor,
Method for making single-use capsules for extraction or infusion beverages including a rigid body, cup-shaped and featuring a bottom and an upper aperture with a rim, a filtering element engaging the upper aperture and configured to present a concavity within the rigid body so as to define a chamber adapted to contain a dose of product, and a closure lid adapted to close the chamber and the upper aperture, characterised by including the following steps, in sequence: - feeding a plurality of rigid bodies; - positioning a first strip of thermoformable filtering material above the rigid bodies; - firmly joining the first strip of thermoformable filtering material to the rigid bodies at a joining zone along respective rims; - forming the filtering element that defines the chamber adapted to contain the dose of product; - filling the chamber with a dose of product; - closing the chamber and the upper aperture of the rigid body with a respective closure lid. - feeding a plurality of rigid bodies; - positioning a first strip of thermoformable filtering material above the rigid bodies; - firmly joining the first strip of thermoformable filtering material to the rigid bodies at a joining zone along respective rims; - forming the filtering element that defines the chamber adapted to contain the dose of product; - filling the chamber with a dose of product; - closing the chamber and the upper aperture of the rigid body with a respective closure lid.
A deployment system for a self-expanding device having a proximal end and a distal end, the system comprising: a self-expanding device compacted to a small diameter for delivery into a body conduit prior to deployment; the device being compacted onto a portion of an outer surface of a catheter shaft; a first length portion of a first sheath covering at least a portion of said compacted self-expanding device; a second sheath covering at least a portion of said first length portion of the first sheath, the second sheath having a smaller inside diameter than an inside diameter of the first sheath when determined as individual parts separate from the assembled system; and a second length portion of the first sheath everted back over and covering at least a portion of said second sheath, the system being configured such that application of tension in the proximal direction to the second length portion of the first sheath causes movement of the second sheath in a proximal direction, and causes release of the self-expanding device. a self-expanding device compacted to a small diameter for delivery into a body conduit prior to deployment; the device being compacted onto a portion of an outer surface of a catheter shaft; a first length portion of a first sheath covering at least a portion of said compacted self-expanding device; a second sheath covering at least a portion of said first length portion of the first sheath, the second sheath having a smaller inside diameter than an inside diameter of the first sheath when determined as individual parts separate from the assembled system; and a second length portion of the first sheath everted back over and covering at least a portion of said second sheath,
Sport training or rehabilitation machine with a flywheel including at least a disk-shaped part rotating about a central axis and a series of weights which distribution with respect to the central axis and weight provides a given moment of inertia, is characterized in that it in addition includes moving coupling means that allow to vary the position of the said weights on the disk and to modify the moment of inertia.
Aircraft, having a tandem wing arrangement and at least two aero engines (5, 6) disposed on the upper face of the rear wing, characterized in that the aircraft has a single fuselage and the tandem wing arrangement comprises two separate wings, wherein both wings (3, 4) are constructed as trapezoidal wings having an aspect ratio in the range of greater or equal 12 and less or equal 25.
A flail chest stabilization device, comprising: a) a pair of lateral bridges; b) a pair of main stabilization bars; c) a screw and slider-element connector assembly; and d) a slider introducer tool, wherein said slider introducer tool is configured to position a slider-element of said screw and slider-element connector assembly, wherein said main stabilization bars are connected by said screw and slider-element connector assembly to said lateral bridges, wherein said stabilization bars are in a parallel configuration or crossed configuration, wherein said main stabilization bar is thicker in a center region relative to each end region, wherein said thicker center region is configured to impart a central stabilization force that is greater than an end stabilization force. a) a pair of lateral bridges; b) a pair of main stabilization bars; c) a screw and slider-element connector assembly; and d) a slider introducer tool, wherein said slider introducer tool is configured to position a slider-element of said screw and slider-element connector assembly, wherein said main stabilization bars are connected by said screw and slider-element connector assembly to said lateral bridges, wherein said stabilization bars are in a parallel configuration or crossed configuration, wherein said main stabilization bar is thicker in a center region relative to each end region, wherein said thicker center region is configured to impart a central stabilization force that is greater than an end stabilization force.
Assembly of a framework, designed for the front face of a motor vehicle, and of a bracket, in which said assembly includes means for positioning the bracket on the framework and in which said bracket includes rigid-attachment means intended to hold an actuator able to drive one or more members to be mounted on said framework, the positioning means including pre-positioning means and fixing means, characterized in that the pre-positioning means include at least one rib and at least one groove, the rib or ribs being situated on the bracket and the groove or grooves being situated on the framework.
A tool (300, 400) for adjusting landing door locks in an elevator shaft, characterized by a first part (302, 406) that is adjustable in length and configured to be mounted in an elevator door opening; and a second part (304, 408) movably attached to the first part (302, 406) and configured to simulate an elevator door coupling, the second part (304, 408) moveable along the length of the first part.
A high-modulus glass fiber composition, wherein, comprising the following components expressed as weight percentage: SiO 2 55.7-58.9% Al 2 O 3 15-19.9% Y 2 O 3 0.1-4.3% La 2 O 3 less than or equal to 1.5% CeO 2 less than or equal to 1.2% CaO 6-10% MgO 9.05-9.95% SrO less than or equal to 2% Li 2 O+Na 2 O+K 2 O less than or equal to 0.99% Li 2 O less than or equal to 0.65% Fe 2 O 3 less than 1% TiO 2 0.1-1.5% wherein, the range of the weight percentage ratio C1=Y 2 O 3 /(Y 2 O 3 +La 2 O 3 +CeO 2) is greater than 0.6.
A method for determining the binding of a test compound to membrane receptors R1 and R2 expressed in the cell membranes, these receptors being known to be present in heterodimeric form, characterized in that it comprises the following steps: (a) labeling the receptor R1 covalently or noncovalently with the first member of a FRET partner pair (D,A1), in which D is the energy donor compound and A1 is the energy acceptor compound; (b) adding, to the measuring medium, a known ligand of R2 capable of binding to the heterodimer R1R2 but neither to the receptor R1 nor to the homodimer R1R1, said ligand being labeled with the second member of said FRET partner pair, and said ligand being selected from: a known agonist compound of R2, a known antagonist compound of R2 or a known allosteric modulator of R2; (c) measuring the luminescence L 1 emitted at the emission wavelength of the acceptor compound A 1, in the presence and in the absence of the test compound. (a) labeling the receptor R1 covalently or noncovalently with the first member of a FRET partner pair (D,A1), in which D is the energy donor compound and A1 is the energy acceptor compound; (b) adding, to the measuring medium, a known ligand of R2 capable of binding to the heterodimer R1R2 but neither to the receptor R1 nor to the homodimer R1R1, said ligand being labeled with the second member of said FRET partner pair, and said ligand being selected from: a known agonist compound of R2, a known antagonist compound of R2 or a known allosteric modulator of R2; (c) measuring the luminescence L 1 emitted at the emission wavelength of the acceptor compound A 1, in the presence and in the absence of the test compound.
Method for determining the room impulse response, RIR, of a passenger compartment of a motor vehicle having a specific spatial volume, comprising the following steps: - simultaneously outputting at least one maximum length sequence signal, MLS signal, and at least one audio signal differing from the MLS signal to a spatial volume of a passenger compartment of a motor vehicle for which the room impulse response is to be determined, wherein the simultaneous output of the at least one MLS signal and the at least one audio signal generates a combined signal containing the at least one MLS signal and the at least one audio signal, - determining the room impulse response of the passenger compartment of the motor vehicle from the combined signal, wherein the at least one MLS signal is output in an attenuated manner by a static or dynamic attenuation factor depending on at least one attenuation criterion, and/or the at least one MLS signal is output in manner adjusted to the at least one audio signal by a static or dynamic adjustment factor depending on at least one adjustment criterion, characterized in that at least one parameter influencing the acoustic properties of the passenger compartment, specifically a physical parameter, and/or the free spatial volume of the passenger compartment, is used as the attenuation criterion, and at least one parameter influencing the acoustic properties of the passenger compartment, specifically a physical parameter, and/or the free spatial volume of the passenger compartment, is used as the adjustment criterion. - simultaneously outputting at least one maximum length sequence signal, MLS signal, and at least one audio signal differing from the MLS signal to a spatial volume of a passenger compartment of a motor vehicle for which the room impulse response is to be determined, wherein the simultaneous output of the at least one MLS signal and the at least one audio signal generates a combined signal containing the at least one MLS signal and the at least one audio signal, - determining the room impulse response of the passenger compartment of the motor vehicle from the combined signal, wherein the at least one MLS signal is output in an attenuated manner by a static or dynamic attenuation factor depending on at least one attenuation criterion, and/or
A machine for preparing a beverage comprising: - an ingredient processing module that comprises a first part and a second part movable relative to the first part from a position for housing therein an ingredient to a transfer position for inserting said ingredient into the processing module and/or for evacuation thereof from the processing module; - a passage (95,96) for inserting said ingredient into the processing module and/or evacuating said ingredient therefrom; and - a gate driven by the movable second part and associated with the passage and movable between a position opening the passage and a position closing the passage, the gate being connected to the movable second part by an intermediate mechanical conversion mechanism (37,91,92) for converting movements of the movable second part into movements of the gate, characterised in that the intermediate mechanical conversion mechanism comprises a gear mechanism (37, 91, 92). - an ingredient processing module that comprises a first part and a second part movable relative to the first part from a position for housing therein an ingredient to a transfer position for inserting said ingredient into the processing module and/or for evacuation thereof from the processing module; - a passage (95,96) for inserting said ingredient into the processing module and/or evacuating said ingredient therefrom; and - a gate driven by the movable second part and associated with the passage and movable between a position opening the passage and a position closing the passage,
A breach sensor, comprising: a substrate including an integrated circuit; a passivation layer protecting the integrated circuit in the substrate; a breach sensing element coupled to the integrated circuit; wherein the breach sensing element is on a first side of the passivation layer and the substrate is on a second side of the passivation layer; and a barrier configured to separate the breach sensing element from an ambient environment; wherein the breach sensing element is responsive to barrier damage; wherein the breach sensor includes a light sensor and the breach sensing element includes a light sensing element configured to generate power in response to barrier damage; and wherein the integrated circuit is coupled to receive the power generated by the light sensor; the breach sensor being characterized in that the integrated circuit is arranged so that detect, alert and avert circuits are powered by the light sensing element even if the integrated circuit is disconnected from a power source. a substrate including an integrated circuit; a passivation layer protecting the integrated circuit in the substrate; a breach sensing element coupled to the integrated circuit; wherein the breach sensing element is on a first side of the passivation layer and the substrate is on a second side of the passivation layer; and a barrier configured to separate the breach sensing element from an ambient environment; wherein the breach sensing element is responsive to barrier damage; wherein the breach sensor includes a light sensor and the breach sensing element includes a light sensing element configured to generate power in response to barrier damage; and wherein the integrated circuit is coupled to receive the power generated by the light sensor; the breach sensor being characterized in that the integrated circuit is arranged so that detect, alert and avert circuits are powered by the light sensing element even if the integrated circuit is disconnected from a power source.
An adhesive for bonding plastics and/or metal substrates, the adhesive comprising at least one polyester polyol based on a mixture of furandicarboxylic acid (FDCA) and one or more aliphatic diacids, and at least one compound containing NCO groups, characterized in that the furandicarboxylic acid used is obtained from renewable raw materials, and the adhesive has a viscosity in the range of from 200 to 10,000 mPas, measured at 10 to 60 °C, using a Brookfield viscometer, in accordance with EN ISO 2555.
A low sidestream smoke cigarette comprising a conventional tobacco rod and a combustible treatment paper having a sidestream smoke treatment composition, said treatment composition comprising an oxygen storage and donor metal oxide oxidation catalyst, an essentially non-combustible particulate adjunct for said catalyst, and a coating of calcium carbonate on an exterior surface of said treatment paper for modifying ash characteristics.
Delivery module for delivering a fluid, in particular for delivering a fluid reducing agent for exhaust-gas aftertreatment, having a pressure pulse damper, which is designed to compensate for pressure fluctuations of the fluid; and a pressure sensor which is arranged directly on the pressure pulse damper, wherein the pressure pulse damper comprises a region which is formed cylindrically around an axis, and the pressure sensor is arranged on the periphery of the cylindrically formed region, wherein the pressure sensor is formed substantially rotationally symmetrically around a pressure sensor axis, and the pressure sensor axis is oriented substantially perpendicularly to the axis of the cylindrically formed region, and wherein the pressure pulse damper comprises an element which is elastically movable in the axial direction of the cylindrically formed region.