mhurhangee/patent-ind-claim-en huggingface dataset:
An arrangement for thermal management of a heat generating component, wherein the heat generating component is arranged within an enclosure and in thermal contact with a dielectric liquid, the arrangement comprising a first electrohydrodynamic, EHD, flow unit arranged within the enclosure, wherein the first EHD flow unit comprises a first electrode and a second electrode arranged offset from the first electrode, and wherein the first EHD flow unit is configured for controlling a flow of the dielectric liquid between the first electrode and the second electrode, the arrangement further comprising an enclosure wall configured to at least partly define the enclosure, wherein the enclosure wall is configured to be attached to one of the heat generating component and an interposer carrying the heat generating component, thereby defining the enclosure.
A re-closable container of rectangular cross-section for packaging of a liquid, made from a blank of thermoplastic coated paperboard, the blank having score lines for separating foldable panels, including a gable top part being foldable so as to initially, upon filling the container with liquid, form a closed position of the container, with a liquid tight seal between two adjoining upper gable side walls (39,75; 40,74) at said gable top part, said liquid tight seal being breakable manually while also forming an upper spout, formed by a number of spout panels (67,51; 68,52; 53,69,54; 70,55) for dispensing liquid from the container, said spout panels being manually foldable back to a closed position, wherein said two adjoining upper gable side walls (39,75; 40,74), at said gable top part, are provided with a re-closable and re-sealable zip lock fastener with two sealingly interlocking strip profiles of a thermoplastic material, each being attached to an associated one of said upper gable side walls (39,75; 40,74), characterized in that each of said sealingly interlocking strip profiles of said zip lock fastener, at its lower side, is provided with a flexible sealing fin or tube exerting a sealing pressure, when said spout panels are folded back to their closed position, on an upper edge surface of an associated one (31,68; 30,69) of said spout panels and also on an adjoining spout panel (29,70; 32,67) located next to said associated spout panel when the spout panels are folded back to said closed position, whereby any seepage of liquid from the container is prevented after folding back the spout panels to their closed position.
Steering column for a motor vehicle, comprising a jacket unit in which a steering spindle is mounted rotatably about a longitudinal axis (L) extending in the longitudinal direction and which has at least two jacket tubes with a polygonal cross-section which are displaceably which are guided adjustably relative to one another in the longitudinal direction, wherein rolling elements having a rolling element radius (k) are arranged between the casing tubes in raceways of a rolling element guide so as to roll in the longitudinal direction, wherein at least three raceways are arranged distributed over the circumference characterized in that the center points (K1, K2) of the rolling elements which can be rolled radially on the outside of a casing tube have a radial distance (a, b) less than or equal to the rolling element radius (k) from an enveloping circle which circumscribes the casing tube on which the rolling elements can be rolled on the outside. at least three raceways are arranged distributed over the circumference characterized in that the center points (K1, K2) of the rolling elements which can be rolled radially on the outside of a casing tube have a radial distance (a, b) less than or equal to the rolling element radius (k) from an enveloping circle which circumscribes the casing tube on which the rolling elements can be rolled on the outside.
A method for producing hydrogen or heavy hydrogens, comprising subjecting water or heavy water to mechanochemical reaction in the presence of a catalyst metal, a rotational acceleration of 75 G or more being applied to water or heavy water for 25 minutes or more, wherein the mechanochemical reaction is performed with a planetary ball mill, and the catalyst metal is selected from iron, iron (II) hydroxide, chromium, chromium (III) oxide, nickel, nickel (II) oxide, magnesium and zinc.
A method comprising: receiving , at a receiving device, a signal including data comprising a first product of an inverse transpose of a transmit coupling matrix of a transmitting device and a transpose of a receive coupling matrix of the transmitting device, wherein the transmit coupling matrix of the transmitting device is based on a source impedance matrix of a transmitter at the transmitting device and an impedance matrix of an array of antennas at the transmitting device, and the receive coupling matrix of the transmitting device is based on a load impedance of a receiver at the transmitting device and an impedance matrix of an array of antennas at the transmitting device; calculating a second product of a transmit coupling matrix of the receiving device and an inverse of a receive coupling matrix of the receiving device, wherein the transmit coupling matrix of the receiving device is based on a source impedance matrix of a transmitter at the receiving device and an impedance matrix of an array of antennas at the receiving device, and the receive coupling matrix of the receiving device is based on a load impedance of a receiver at the receiving device and an impedance matrix of an array of antennas at the receiving device; measuring , at the receiving device, a receive channel between the transmitting device and the receiving device using reference symbols received from the transmitting device; determining a reverse channel based on the signal, the second product, and the measurement of the receive channel; and transmitting a precoded signal based on the reverse channel. receiving , at a receiving device, a signal including data comprising a first product of an inverse transpose of a transmit coupling matrix of a transmitting device and a transpose of a receive coupling matrix of the transmitting device, wherein the transmit coupling matrix of the transmitting device is based on a source impedance matrix of a transmitter at the transmitting device and an impedance matrix of an array of antennas at the transmitting device, and the receive coupling matrix of the transmitting device is based on a load impedance of a receiver at the transmitting device and an impedance matrix of an array of antennas at the transmitting device; calculating a second product of a transmit coupling matrix of the receiving device and an inverse of a receive coupling matrix of the receiving device, wherein the transmit coupling matrix of the receiving device is based on a source impedance matrix of a transmitter at the receiving device and an impedance matrix of an array of antennas at the receiving device, and the receive coupling matrix of the receiving device is based on a load impedance of a receiver at the receiving device and an impedance matrix of an array of antennas at the receiving device; measuring , at the receiving device, a receive channel between the transmitting device and the receiving device using reference symbols received from the transmitting device; determining a reverse channel based on the signal, the second product, and the measurement of the receive channel; and transmitting a precoded signal based on the reverse channel.
One or more computer-readable storage media, storing information to enable a computing device that resides in a physical environment to perform a process, the computing device comprising a processor, hardware components, and a kernel , which is part of an operating system executing on the computing device and controlling the processor and other resources of the computing device, the process comprising: receiving environment data about the current physical environment of the computing device, wherein the receiving the environment data comprises reading a physical sensor that senses an aspect of the physical environment, the sensing of the physical sensor comprises generating a signal that indicates a radiation, and the physical environment is an immediate vicinity of the computing device; evaluating , by a first module running in kernel space, a set of rules that specify physical environmental conditions of the physical environment to determine from the environment data that the physical environment currently has a condition specified by a rule; and modifying , by a second module running in kernel space, a behavior or functionality of the kernel in response to the determination that the physical environment has the specified condition, whereby the behavior or functionality of the kernel is modified in accordance with the physical environment, wherein modifying comprises when a level of radiation is detected, altering management routines of the kernel to make use of error correction codes to mitigate radiation induced bit reversals. receiving environment data about the current physical environment of the computing device, wherein the receiving the environment data comprises reading a physical sensor that senses an aspect of the physical environment, the sensing of the physical sensor comprises generating a signal that indicates a radiation, and the physical environment is an immediate vicinity of the computing device; evaluating , by a first module running in kernel space, a set of rules that specify physical environmental conditions of the physical environment to determine from the environment data that the physical environment currently has a condition specified by a rule; and modifying , by a second module running in kernel space, a behavior or functionality of the kernel in response to the determination that the physical environment has the specified condition, whereby the behavior or functionality of the kernel is modified in accordance with the physical environment, wherein modifying comprises when a level of radiation is detected, altering management routines of the kernel to make use of error correction codes to mitigate radiation induced bit reversals.
Apparatus for moving transport containers between a container stack and a container rack , comprising a lifting device which can set against a transport container transversely with respect to a lifting direction (H), wherein the lifting device comprises a guide for displacing the transport container transversely with respect to the lifting direction (H), and wherein a sliding device which can be connected to the transport container in a detachable, tension-resistant and shear-resistant manner is provided for displacing the transport container in the guide between a lifting position and a rack insertion position, characterized by a container receptacle into which the transport container can be inserted in the lifting direction (H) when the lifting device is open, and transversely to the lifting direction (H) when the lifting device is set.
A system comprising: - a hand-held weld tool comprising a positioning and orientation measurement system having an inertial measurement unit (IMU); - a processing subsystem operable to compute, based on data generated by the IMU during a weld operation on a workpiece , one or more actual motion attributes for the hand-held weld tool ; characterized by - a calibration apparatus configured to hold the hand-held weld tool in a known position and orientation and in stationary state for calibration of the positioning and orientation measurement system, wherein the calibration apparatus comprises a sensor for detecting when the hand-held weld tool is properly positioned for calibration, and wherein the calibration apparatus comprises one or more tool parking spots at a known spatial and orientation relative to a fixture on which the weld operation is to be performed. - a hand-held weld tool comprising a positioning and orientation measurement system having an inertial measurement unit (IMU); - a processing subsystem operable to compute, based on data generated by the IMU during a weld operation on a workpiece , one or more actual motion attributes for the hand-held weld tool ; - a calibration apparatus configured to hold the hand-held weld tool in a known position and orientation and in stationary state for calibration of the positioning and orientation measurement system,
A floor covering panel having a support layer , which has mineral wool compacted into a mineral wool panel and a binder, wherein the mineral wool comprises rock wool fibers and/or glass wool fibers, and - the support layer having profiled edges is configured for connection with a second, similar floor covering panel , wherein a first positive-locking element is arranged on one side of the support layer and a second positive-locking element is arranged on an opposite side of the support layer and the two positive-locking elements are configured in a complementary manner to one another such that the first positive-locking element of the floor covering panel can be positively connected to the second positive-locking element of a further floor covering panel , and - the support layer is coated, wherein the coating is in particular a decorative layer which is inseparably applied to the support layer , which decorative layer forms the visible upper side of the floor covering panel , characterized in that - additives from the group of polypropylene, polyethylene, paraffin or wax are added to the support layer, and - the coating is bonded onto the support layer by means of an adhesive connection. - the support layer having profiled edges is configured for connection with a second, similar floor covering panel , wherein a first positive-locking element is arranged on one side of the support layer and a second positive-locking element is arranged on an opposite side of the support layer and the two positive-locking elements are configured in a complementary manner to one another such that the first positive-locking element of the floor covering panel can be positively connected to the second positive-locking element of a further floor covering panel , and - the support layer is coated, wherein the coating is in particular a decorative layer which is inseparably applied to the support layer , which decorative layer forms the visible upper side of the floor covering panel , - additives from the group of polypropylene, polyethylene, paraffin or wax are added to the support layer, and - the coating is bonded onto the support layer by means of an adhesive connection.
Method to operate a base station (BS) being part of a cellular network (CN), the base station serving a plurality of user equipments (UE), wherein the plurality of user equipments comprises user equipments (UE) which are qualified as reduced capability user equipment, and the base station (BS) is capable of applying at least one subcarrier spacing (SCS) to a supported frequency band, wherein for operating a reduced capability user equipment (UE) the method, being performed by the base station (BS) comprises the steps of: - ascertaining (S1) a capability information from said user equipment (UE) including an indication of maximum number of supported subcarriers (SC) supported by the reduced capability user equipment, - determining (S2) the scheduling bandwidth (SBW) for said user equipment (UE) taking into account the indicated maximum number of supported subcarriers (SC) and the at least one subcarrier spacing (SCS), - transferring (S6) information to said user equipment (UE) relating to said determined scheduling bandwidth (SBW), wherein a user equipment (UE) is qualified as reduced capability in case it is incapable of supporting all subcarriers (SC) across the full frequency band supported by the base station (BS), and wherein the step of determining the scheduling bandwidth (SBW) comprises the step of identifying a plurality of subcarriers with slots that are free to be allocated to a user equipment (UE), wherein the plurality of subcarriers (SC) considers the indicated maximum number of supported subcarriers. - ascertaining (S1) a capability information from said user equipment (UE) including an indication of maximum number of supported subcarriers (SC) supported by the reduced capability user equipment, - determining (S2) the scheduling bandwidth (SBW) for said user equipment (UE) taking into account the indicated maximum number of supported subcarriers (SC) and the at least one subcarrier spacing (SCS), - transferring (S6) information to said user equipment (UE) relating to said determined scheduling bandwidth (SBW), wherein a user equipment (UE) is qualified as reduced capability in case it is incapable of supporting all subcarriers (SC) across the full frequency band supported by the base station (BS), and wherein the step of determining the scheduling bandwidth (SBW) comprises the step of identifying a plurality of subcarriers with slots that are free to be allocated to a user equipment (UE), wherein the plurality of subcarriers (SC) considers the indicated maximum number of supported subcarriers.
A method of autonomously scheduled transmission within configurations set by a base station in 3GPP New Radio via Radio Resource Control from a user equipment to the base station, the method performed at the UE and comprising the steps of: transmitting at a first available transmission occasion a corresponding first redundancy version , RV, of a transport block associated with this occasion; and transmitting remaining repetitions of the transport block on the next available occasions with their associated RVs, wherein transmitting the remaining repetitions comprises the UE using a pre-configured RV sequence in a circular manner, wherein indices of RVs in the RV sequence are in an order of 0, 2, and 3. transmitting at a first available transmission occasion a corresponding first redundancy version , RV, of a transport block associated with this occasion; and transmitting remaining repetitions of the transport block on the next available occasions with their associated RVs, wherein transmitting the remaining repetitions comprises the UE using a pre-configured RV sequence in a circular manner, wherein indices of RVs in the RV sequence are in an order of 0, 2, and 3.
A lifting tool for mounting and dismounting of a sash of a roof window in an inclined roof construction, said lifting tool comprising: two support stands adapted to be placed on the roof at opposite sides of a mounted window frame of the roof window, each support stand comprising a support base , a support leg , and an angle bar which together forms a triangle with a connection point at each corner; a cross bar which can be releasably attached between the support stands ; and a winch which can by mounted on the cross bar ; wherein two of the connection points between the support base , the support leg , and the angle bar of each support stand are pivotable and the third connection point is releasable, when the lifting tool is not in use, so that the lifting tool can be folded together, characterized in that at least one of the connection points between the support base , the support leg , and the angle bar of each support stand is displaceable along the length of one of said support base, support leg, and angle bar so that the support stand can be adjusted to the inclination of the roof, and in that the lifting tool further comprises a mounting strap which can be spanned between the support bases , wherein a length of the mounting strap is adjustable, and/or wherein the support stands each comprise a batten hook . two support stands adapted to be placed on the roof at opposite sides of a mounted window frame of the roof window, each support stand comprising a support base , a support leg , and an angle bar which together forms a triangle with a connection point at each corner; a cross bar which can be releasably attached between the support stands ; and a winch which can by mounted on the cross bar ; wherein two of the connection points between the support base , the support leg , and the angle bar of each support stand are pivotable and the third connection point is releasable, when the lifting tool is not in use, so that the lifting tool can be folded together, characterized in that at least one of the connection points between the support base , the support leg , and the angle bar of each support stand is displaceable along the length of one of said support base, support leg, and angle bar so that the support stand can be adjusted to the inclination of the roof, and in that the lifting tool further comprises a mounting strap which can be spanned between the support bases , wherein a length of the mounting strap is adjustable, and/or wherein the support stands each comprise a batten hook .
A method of operating a building elevator system having a plurality of elevator systems (101a-101f) organized into multiple elevator groups (112a-112c), the method comprising: receiving an elevator call from a destination entry device (89a-89i) in communication with the building elevator system ; obtaining a favorability score from each of the multiple elevator groups (112a-112c) of the building elevator system ; determining an elevator group of the multiple elevator groups (112a-112c) with the highest favorability score ; and routing the elevator call to the elevator group of the multiple elevator groups (112a-112c) with the highest favorability score ; characterized in that obtaining a favorability score from multiple elevator groups (112a-112c) of the building elevator system further comprises: continuously requesting a favorability score query to a dispatcher (210a-210c) of each elevator group of the multiple elevator groups (112a-112c); receiving potential favorability scores from each elevator group (112a-112c) for potential elevator calls; and determining the favorability score from the potential favorability scores in response to the elevator call . receiving an elevator call from a destination entry device (89a-89i) in communication with the building elevator system ; obtaining a favorability score from each of the multiple elevator groups (112a-112c) of the building elevator system ; determining an elevator group of the multiple elevator groups (112a-112c) with the highest favorability score ; and routing the elevator call to the elevator group of the multiple elevator groups (112a-112c) with the highest favorability score ; characterized in that obtaining a favorability score from multiple elevator groups (112a-112c) of the building elevator system further comprises: continuously requesting a favorability score query to a dispatcher (210a-210c) of each elevator group of the multiple elevator groups (112a-112c); receiving potential favorability scores from each elevator group (112a-112c) for potential elevator calls; and determining the favorability score from the potential favorability scores in response to the elevator call . continuously requesting a favorability score query to a dispatcher (210a-210c) of each elevator group of the multiple elevator groups (112a-112c); receiving potential favorability scores from each elevator group (112a-112c) for potential elevator calls; and determining the favorability score from the potential favorability scores in response to the elevator call .