mhurhangee/ep-ind-claims huggingface dataset:
A method for cancelling self interference, SI, and mutual interference, MI, in signals received by a full-duplex transmit/receive point, TRP, the method comprising: determining a first orthogonal training signal of a plurality of orthogonal training signals; mapping the first orthogonal training signal to a transmit antenna of the TRP; transmitting the first orthogonal training signal via the transmit antenna; receiving, by a receive antenna of the TRP, a received signal including the first orthogonal training signal and at least a second orthogonal training signal of the plurality of orthogonal training signals, the second orthogonal training signal originating from a distinct TRP; performing a first SI cancellation operation on the received signal to generate first SI estimation information and cancel a first SI component of the received signal, the first SI cancellation operation utilizing a training signal derived from the first orthogonal training signal in conjunction with the transmitting of the first orthogonal training signal; estimating, based at least in part on the received signal and the first orthogonal training signal, a first channel impulse response, CIR, of a wireless channel between the transmit antenna and the receive antenna, the first CIR relating to a second SI component of the received signal; and estimating, based at least in part on the received signal and transmission information relating to the second orthogonal training signal, a second CIR of a wireless channel between the TRP and the distinct TRP. determining a first orthogonal training signal of a plurality of orthogonal training signals; mapping the first orthogonal training signal to a transmit antenna of the TRP; transmitting the first orthogonal training signal via the transmit antenna; receiving, by a receive antenna of the TRP, a received signal including the first orthogonal training signal and at least a second orthogonal training signal of the plurality of orthogonal training signals, the second orthogonal training signal originating from a distinct TRP; performing a first SI cancellation operation on the received signal to generate first SI estimation information and cancel a first SI component of the received signal, the first SI cancellation operation utilizing a training signal derived from the first orthogonal training signal in conjunction with the transmitting of the first orthogonal training signal; estimating, based at least in part on the received signal and the first orthogonal training signal, a first channel impulse response, CIR, of a wireless channel between the transmit antenna and the receive antenna, the first CIR relating to a second SI component of the received signal; and estimating, based at least in part on the received signal and transmission information relating to the second orthogonal training signal, a second CIR of a wireless channel between the TRP and the distinct TRP.
A method of forming an entrainment heat sink device, comprising: forming a first opening (112-1, 112-2,...,112-N) through a first material; forming an additional opening (112-1, 112-2,...,112-N) through the first material; forming a dimple (130-1, 130-2) having a trapezoidal cross-section in the first material such that: the first opening (112-1,112-2,..., 112-N) is located on a side wall (132-1, 132-2) of the trapezoidal cross-section; and the additional opening (112-1,112-2,..., 112-N) is located on the side wall (132-1, 132-2) of the trapezoidal cross-section opposite the first opening (112-1,112-2,..., 112-N); and attaching the first material to a second material (140, 160), wherein: the first material or the second material (140, 160) has a trench (142-1, 142-2, 150-1, 150-2, 150-3, 161-1, 161-2, 161-3) formed therein; and the first material is attached to the second material (140, 160) such that the trench (142-1, 142-2, 150-1, 150-2, 150-3, 161-1, 161-2, 161-3) is in fluidic communication with the dimple (130-1, 130-2). forming a first opening (112-1, 112-2,...,112-N) through a first material; forming an additional opening (112-1, 112-2,...,112-N) through the first material; forming a dimple (130-1, 130-2) having a trapezoidal cross-section in the first material such that: the first opening (112-1,112-2,..., 112-N) is located on a side wall (132-1, 132-2) of the trapezoidal cross-section; and the additional opening (112-1,112-2,..., 112-N) is located on the side wall (132-1, 132-2) of the trapezoidal cross-section opposite the first opening (112-1,112-2,..., 112-N); and the first opening (112-1,112-2,..., 112-N) is located on a side wall (132-1, 132-2) of the trapezoidal cross-section; and the additional opening (112-1,112-2,..., 112-N) is located on the side wall (132-1, 132-2) of the trapezoidal cross-section opposite the first opening (112-1,112-2,..., 112-N); and attaching the first material to a second material (140, 160), wherein: the first material or the second material (140, 160) has a trench (142-1, 142-2, 150-1, 150-2, 150-3, 161-1, 161-2, 161-3) formed therein; and the first material is attached to the second material (140, 160) such that the trench (142-1, 142-2, 150-1, 150-2, 150-3, 161-1, 161-2, 161-3) is in fluidic communication with the dimple (130-1, 130-2). the first material or the second material (140, 160) has a trench (142-1, 142-2, 150-1, 150-2, 150-3, 161-1, 161-2, 161-3) formed therein; and the first material is attached to the second material (140, 160) such that the trench (142-1, 142-2, 150-1, 150-2, 150-3, 161-1, 161-2, 161-3) is in fluidic communication with the dimple (130-1, 130-2).
Method for operating a contactless ultrasound or radar fill level measuring device having at least one open distribution transmitter, at least one receiver and at least one evaluation unit comprising the following steps: emitting a transmitter signal by the transmitter, receiving a reflection signal reflected on a reflector by the receiver, evaluating the transmitter signal and/or the reflection signal by the evaluation unit, wherein the evaluation unit identifies a frequency shift between the transmitter signal and the reflection signal and, by evaluating the determined frequency shift or a variable derived from the determined frequency shift, detects a filling event, in which a filling stream at least partially passes through the transmitter signal characterized in that the evaluation unit determines the reflector speed from the identified frequency shift and detects the filling event by comparing the reflector speed to a predetermined speed limit, wherein it is recognized whether the reflector belongs to a quickly moving filling current by comparison to a speed limit. emitting a transmitter signal by the transmitter, receiving a reflection signal reflected on a reflector by the receiver, evaluating the transmitter signal and/or the reflection signal by the evaluation unit, wherein the evaluation unit identifies a frequency shift between the transmitter signal and the reflection signal and, by evaluating the determined frequency shift or a variable derived from the determined frequency shift, detects a filling event, in which a filling stream at least partially passes through the transmitter signal characterized in that the evaluation unit determines the reflector speed from the identified frequency shift and detects the filling event by comparing the reflector speed to a predetermined speed limit, wherein it is recognized whether the reflector belongs to a quickly moving filling current by comparison to a speed limit.
An energy supply system, in particular for a tool which can be attached or is attached to a hoist, having a line storage for winding and unwinding at least one energy line around a winding center of the line storage, wherein at least one carrier is provided for the at least one energy line, and the line storage has an opening for the inlet and outlet of the carrier and the energy line, wherein the at least one carrier can be guided through the opening for guiding the carrier and the energy line in sections in the line storage by guide means via a first guide section through a first guide arch, and via a second guide section, which is adjoining the first guide arch, through a second guide arch, and via a third guide section, which is adjoining the second guide arch, and lies further inwards, compared with the first guide section, relative to the winding center - and possibly further guide arches and guide sections - to the winding center of the line storage, wherein the carrier has an outer, first end and an inner, second end, and the carrier has a section with guide means and a section without guide means, wherein the section without guide means extends from the second end to the section with guide means, and the carrier is connected to the winding center at the second end of the carrier, and the section without guide means is unguided in the line storage, wherein the unguided section of the carrier can be wound essentially spirally around the winding center, characterized in that the winding radius of the unguided section of the carrier increases or decreases as the guided part of the section of the carrier is wound or unwound, wherein the energy line in the winding center leads into the line storage through a non-rotatable joint.
A structure of oil control valve for variable lift of engine valve, wherein the engine at least comprises a crankcase, a cylinder block mounted on the crankcase, and a cylinder head mounted on the cylinder block, the cylinder block comprising a timing chain compartment, which extends upward to the cylinder head, the timing chain compartment receiving a timing chain mounted therein, the cylinder head comprising a rocker arm compartment, which comprises a cam assembly, a rocker arm assembly, and a valve assembly mounted therein, wherein the rocker arm assembly comprises an oil-control driving mechanism, the oil-control driving mechanism being controlled by an oil control valve, characterized in that: an oil control valve mounting base is mounted on a surface of the cylinder head that is on the same side as the intake port, the oil control valve mounting base comprising a coupling seat and an insertion seat, the oil control valve comprising a valve body and an insertion section, the insertion seat of the oil control valve mounting base receiving the insertion section of the oil control valve to insert therein, wherein the insertion seat of the oil control valve mounting base and the cylinder head are spaced from each other by a spacing distance; and wherein in a front view of the engine, the oil control valve mounting base and the oil control valve are arranged in a second quadrant of the engine whereby the oil control valve mounting base and the oil control valve are set on the surface of the cylinder head that is on the same side as the intake port between the intake port and the igniter mounting base.
Hybrid turf comprising a plurality of synthetic fibres made of a biodegradable compound; wherein said biodegradable compound comprises polybutylene succinate adipate (PBSA), characterised in that the amount of polybutylene succinate adipate is equal to or greater than 60% by weight of the compound.
A compound of the Formula wherein R 1 is selected from the group consisting of H and CH 3; R 2 is selected from the group con+sisting of H and CH 3; R 3 is selected from the group consisting of H, C 1 -C 3 alkyl, O(CH 2) 3 SO 2 CH 3, O(CH 2) 2 OCH 3, O(CH 2) 2 C(CH 3) 2 OH, CN, and OCF 2; or a pharmaceutically acceptable salt thereof. R 1 is selected from the group consisting of H and CH 3; R 2 is selected from the group con+sisting of H and CH 3; R 3 is selected from the group consisting of H, C 1 -C 3 alkyl, O(CH 2) 3 SO 2 CH 3, O(CH 2) 2 OCH 3, O(CH 2) 2 C(CH 3) 2 OH, CN, and OCF 2;
A shaft comprising a shaft body and a generator including a secondary part having a coil and a primary part having a magnet arranged within the secondary part and movable relative to the secondary part characterized in that the generator is provided non-rotatably on the shaft body and the coil is non-rotatably coupled to the shaft body and in that the magnet is movable along a curved longitudinal extension of the coil and deflectable in the circumferential direction of the shaft body, wherein the curved longitudinal extension is radially spaced from a longitudinal axis of the shaft body.
A deodorant composition comprising at least one phenolic compound and at least one enzyme capable of oxidizing the at least one phenolic compound into a compound having a quinone structure, characterized in that said deodorant composition further comprises at least one of flavor and fragrance that comprises at least one compound selected from the group consisting of one or several volatile compounds having a molecular weight lower than 500 Dalton; an essential oil; and plant, vegetable or fruit extracts, said deodorant composition comprising said at least one of flavor and fragrance in an amount sufficient to remove the last remaining trace of odours which cannot be inactivated by said at least one phenolic compound and at least one enzyme; wherein said at least one of flavor and fragrance is citrus-type fragrance, mint-type fragrance, musk- and wood-type fragrance, fruit- and floral-type fragrance, greenery- and floral-type fragrance, peppermint-type flavour, mint-type flavour, lemon-type flavour or perilla-type flavor said deodorant composition further comprises at least one of flavor and fragrance that comprises at least one compound selected from the group consisting of one or several volatile compounds having a molecular weight lower than 500 Dalton; an essential oil; and plant, vegetable or fruit extracts, said deodorant composition comprising said at least one of flavor and fragrance in an amount sufficient to remove the last remaining trace of odours which cannot be inactivated by said at least one phenolic compound and at least one enzyme; wherein said at least one of flavor and fragrance is citrus-type fragrance, mint-type fragrance, musk- and wood-type fragrance, fruit- and floral-type fragrance, greenery- and floral-type fragrance, peppermint-type flavour, mint-type flavour, lemon-type flavour or perilla-type flavor
Headlight assembly of a motor vehicle, comprising at least two headlights (1a, 2a) mounted in a front region of the motor vehicle, a first headlight having at least one light source for emitting light into an emission region in front of the motor vehicle, and a further headlight having at least one further light source for emitting light into a further emission region in front of the same motor vehicle, the first headlight comprising a monitoring device for monitoring a monitoring region in front of the motor vehicle and for detecting people and/or objects in the monitoring region, characterized in that the monitoring device of the first headlight comprises a detector unit for detecting people and/or objects in the further emission region of the at least one further light source of the further headlight of the headlight assembly in front of the same motor vehicle, the detector unit has a detection region that the detector unit monitors, the monitoring region of the monitoring device of the first headlight resulting from an overlap of the detection region of the detector unit of the first headlight with the further emission region of the further light source of the further headlight of the same motor vehicle, and the detector unit only detecting people and/or objects in the monitoring region, and in that the further headlight has a further monitoring device for monitoring a further monitoring region in front of the motor vehicle and for detecting people and/or objects in the monitoring region, the further monitoring device of the further headlight comprising a further detector unit for detecting people and/or objects in the emission region of the at least one light source of the first headlight of the headlight assembly in front of the same motor vehicle, and in that a main direction of a detection region of a monitoring device (1b; 2b) obliquely intersects a light output direction of an emission region of the relevant light source (2a; 1a) assigned to the monitoring device (1b; 2b), such that a restricted monitoring region is produced, and in that the detector unit is designed to detect an amount of light that has been reflected or scattered by people and/or objects located in the monitoring region 0-5 meters in front of the motor vehicle.
A method performed by a wireless device for accessing a network, the method comprising: performing a two-step random access procedure in unlicensed spectrum comprising transmitting a preamble in at least one Physical Random Access Channel, PRACH, occasion, and transmitting a Physical Uplink Shared Channel, PUSCH, wherein the procedure comprises: transmitting the PUSCH starting at a starting symbol after a first symbol of a first slot; and transmitting the preamble in a PRACH occasion within the first slot before said starting symbol and extending the duration of the preamble until a time before said starting symbol to ensure that a gap between transmitting the preamble and transmitting the PUSCH is less than a predetermined duration, wherein the predetermined duration is a maximum gap in a channel occupancy time in the unlicensed spectrum. transmitting the PUSCH starting at a starting symbol after a first symbol of a first slot; and transmitting the preamble in a PRACH occasion within the first slot before said starting symbol and extending the duration of the preamble until a time before said starting symbol to ensure that a gap between transmitting the preamble and transmitting the PUSCH is less than a predetermined duration, wherein the predetermined duration is a maximum gap in a channel occupancy time in the unlicensed spectrum.
Exciter structure, namely arrangement for broadcasting and/or receiving radio signals, having a metallic base element which has a plane surface and is intended to form the electrical earth of the exciter structure, having a planar metallic roof element which is arranged at a distance parallel to the base element and is electrically conductively connected thereto, and having at least one exciter element (2; 3) which is arranged in an intermediate space between the base element and the roof element and to which the end of a signal line (17; 18) fed through the base element and insulated therefrom is electrically conductively connected, wherein the one exciter element (2; 3) or at least one of a plurality of exciter elements (2; 3) arranged between the base element and the roof element is formed in a planar fashion and protrudes in the direction of the roof element from a root point (7; 11) on the base element, which is formed for its connection to the signal line (17; 18), in an extent direction in relation to the plane surface of the base element that has both a vertical component and a horizontal component, while leaving a distance from the roof element, characterized in that the exciter structure has at least one exciter element consisting of at least two surface sections (8 1; 9 1; 8 2; 9 2) integrally connected to one another, a first surface section (8 1; 8 2) protruding in relation to the base element in a substantially vertical direction from the root point being connected to a second surface section (9 1; 9 2) of the exciter element, which extends in a substantially horizontal direction, and in that this at least one exciter element has at least two wings that converge on the root point and respectively consist of at least two surface sections (8 1; 9 1; 8 2; 9 2) integrally connected to one another, each having a first surface section (8 1; 8 2) protruding in relation to the base element predominantly in a vertical direction from the root point and each having a second surface section (9 1; 9 2) extending in relation to the base element predominantly in a horizontal direction and connected to the first surface section (8 1; 8 2) of the same wing, the at least two wings of the exciter element coming in contact with one another only at the root point and being formed in order to transmit and receive signals in different frequency bands supported by a radio standard.
A refrigerator comprising: a body; a freezing compartment provided in the inside of the body, a plurality of refrigerating compartments (30, 40) provided in the inside of the body and stacked vertically for each to be next to the freezing compartment in a horizontal direction, the plurality of refrigerating compartments (30, 40) comprising a first refrigerating compartment and a second refrigerating compartment; a freezing compartment cooling space arranged behind the freezing compartment only, the freezing compartment cooling space configured to communicate with the freezing compartment, a freezing compartment partition configured to divide the freezing compartment and the freezing compartment cooling space, the freezing compartment partition comprising a freezing compartment duct; an evaporator arranged in the freezing compartment cooling space below the freezing compartment duct and configured to generate cooling air; a first duct configured to allow the cooling air generated by the evaporator to be supplied to the first refrigerating compartment, the first duct comprising a first cooling air inlet arranged in the inner space of the freezing compartment duct; and a second duct configured to allow the cooling air generated by the evaporator to be supplied to the second refrigerating compartment through a second cooling air inlet formed on one wall of the freezing compartment duct, wherein the first cooling air inlet and the second cooling air inlet are arranged above the evaporator. a body; a freezing compartment provided in the inside of the body, a plurality of refrigerating compartments (30, 40) provided in the inside of the body and stacked vertically for each to be next to the freezing compartment in a horizontal direction, the plurality of refrigerating compartments (30, 40) comprising a first refrigerating compartment and a second refrigerating compartment; a freezing compartment cooling space arranged behind the freezing compartment only, the freezing compartment cooling space configured to communicate with the freezing compartment, a freezing compartment partition configured to divide the freezing compartment and the freezing compartment cooling space, the freezing compartment partition comprising a freezing compartment duct; an evaporator arranged in the freezing compartment cooling space below the freezing compartment duct and configured to generate cooling air; a first duct configured to allow the cooling air generated by the evaporator to be supplied to the first refrigerating compartment, the first duct comprising a first cooling air inlet arranged in the inner space of the freezing compartment duct; and a second duct configured to allow the cooling air generated by the evaporator to be supplied to the second refrigerating compartment through a second cooling air inlet formed on one wall of the freezing compartment duct, wherein the first cooling air inlet and the second cooling air inlet are arranged above the evaporator.