mhurhangee/ep-ind-claims huggingface dataset:
A device for regulating temperature and for allocating consumption of a heating element, comprising: - a box-shaped body configured for being associated or mounted to a heating element, in particular to a radiator; - heat-regulating organs configured for regulating the operation of the heating element so as to obtain a desired temperature in the environment where the radiant element is installed; - allocating organs configured for calculating the amount of emitted heat, or consumed thermal energy, over time by the heating element; - a first section inside said box-shaped body, selectively accessible from outside with the device mounted and/or installed; - at least a first battery, housed in said first section; the device being characterised in that it comprises: - a second section inside said box-shaped body, inaccessible from outside with the device mounted and/or installed; - at least a second battery, housed in said second section; wherein, in a first operating condition in which said first battery is charged, said first battery is configured for supplying at least said heat-regulating organs, and in a second operating condition in which said first battery is low, said second battery is configured for supplying said allocating organs. - a box-shaped body configured for being associated or mounted to a heating element, in particular to a radiator; - heat-regulating organs configured for regulating the operation of the heating element so as to obtain a desired temperature in the environment where the radiant element is installed; - allocating organs configured for calculating the amount of emitted heat, or consumed thermal energy, over time by the heating element; - a first section inside said box-shaped body, selectively accessible from outside with the device mounted and/or installed; - at least a first battery, housed in said first section; - a second section inside said box-shaped body, inaccessible from outside with the device mounted and/or installed; - at least a second battery, housed in said second section;
Multi-layer construction system for floor coverings with floor heatings, particularly for laying ceramic floor coverings using the thin-bed method, comprising at the lower side an essentially plate-shaped component for planar laying and and for the accommodation of pipelines of a floor heating system in which accommodation spaces for pipelines are provided, wherein on the surface of the plate-shaped component a heat-conductive layer (6, 17) is disposed, said layer standing in a heat-conductive connection with the pipelines, characterized in that an uncoupling mat is disposed on the surface of the plate-shaped component, having an uncoupling layer, an anchoring layer (2, 3) disposed on top of the uncoupling layer, said anchoring layer (2, 3) forming a structure element (2, 3) for a filler mass to be filled in in a region of the top of the construction system, said filler mass being plastic during processing and hardening afterwards, and a reinforcement layer disposed on top of and rigidly connected to the anchoring layer (2, 3), at least in sections, wherein the anchoring layer (2, 3), together with the filler mass to be filled in into the anchoring layer (2, 3), forms a composite body resistant to bending which is almost completely filled with the filler mass, which uncouples the floor covering applied on top of the construction system so that the floor covering is unaffected by changes in the substrate and/or the plate-shaped component that occur underneath the floor covering and by which the heat is conducted better between the pipes and the floor covering without the drawback of a plurality of air-filled cavities in the uncoupling mat, and the uncoupling layer is connected with the surface of the heat-conductive layer (6, 17) by means of an adhesive.
An attachment element for mounting a vehicle seat on a vehicle structure, comprising a sleeve, at one end of which a lever element is arranged, and an element which is configured substantially in the manner of a hollow cylinder, which at least partially surrounds the sleeve, characterized in that the element,configured in the manner of a hollow cylinder, comprises at least two wing-like extensions opposing one another and is held positively and/or non-positively on the sleeve by means of at least two retaining tabs opposing one another so that, when arranging or mounting the vehicle seat in the vehicle, the attachment element is able to be arranged in a first position in which the element configured in the manner of a hollow cylinder with the wing-like extensions is able to be arranged in a correspondingly shaped recess of a retaining element of the vehicle seat, wherein retaining tabs of a sleeve of the attachment element bear against a retaining element of the vehicle seat.
A branching unit, comprising: a supply destination switching section switching one supply destination of each of a plurality of power lines (6a-6c) that supply electric power to a unit that transfers an optical signal received from a terminal station unit through a transmission line to another supply destination corresponding to a control signal received from said terminal station unit characterised by, a current detection section outputting a detection signal that includes information that denotes whether currents are flowing in said plurality of power lines (6a-6c) and information that represents current directions if currents are flowing; and a monitor section transmitting a monitored result based on at least one of a plurality of detection signals received from said current detection section to said terminal station unit. a supply destination switching section switching one supply destination of each of a plurality of power lines (6a-6c) that supply electric power to a unit that transfers an optical signal received from a terminal station unit through a transmission line to another supply destination corresponding to a control signal received from said terminal station unit characterised by, a current detection section outputting a detection signal that includes information that denotes whether currents are flowing in said plurality of power lines (6a-6c) and information that represents current directions if currents are flowing; and a monitor section transmitting a monitored result based on at least one of a plurality of detection signals received from said current detection section to said terminal station unit.
A security element for an object of value, which has: - a flat, transparent body having a front side and a back side between which there lies a center plane, - a first region configured on the body and a second region configured on the body which encode a motif (21, 22), wherein - the body has in the first region a ground element structure which conveys different color impressions from front and back sides in plan view of the body, characterized in that - the ground element structure is realized as a grating ground structure or as a substrate which has different interference layers (28, 29) on its cover surfaces, and that - the body likewise has the ground element structure in the second region but in mirrored form relative to the center plane, causing first and second regions (I, II) to show the motif (21, 22) from both sides in plan view, but the motif (21, 22) to be unrecognizable in transmission view. - a flat, transparent body having a front side and a back side between which there lies a center plane, - a first region configured on the body and a second region configured on the body which encode a motif (21, 22), wherein - the body has in the first region a ground element structure which conveys different color impressions from front and back sides in plan view of the body, - the ground element structure is realized as a grating ground structure or as a substrate which has different interference layers (28, 29) on its cover surfaces, and that - the body likewise has the ground element structure in the second region but in mirrored form relative to the center plane, causing first and second regions (I, II) to show the motif (21, 22) from both sides in plan view, but the motif (21, 22) to be unrecognizable in transmission view.
An operation apparatus through which a user operation is performed to control an adjustment of a plurality of image displaying apparatuses (101, 201, 301), the operation apparatus comprising: a detector (110, 210, 310) configured to detect the user operation; and a controller (110, 210, 310) configured to acquire information on an arrangement of the plurality of image displaying apparatuses and to switch a control target apparatus among the image displaying apparatuses when a user operation is detected (S604:YES) which inputs a direction corresponding to an arrangement direction of the plurality of image displaying apparatuses indicated by the information on the arrangement, characterized in that, in a case where the information on the arrangement indicates a horizontal or a vertical arrangement direction of the plurality of image displaying apparatuses, the controller is configured to switch between an individual adjustment control and a collective adjustment control for the plurality of image displaying apparatuses when a user operation is detected (S604:NO) which inputs a direction not corresponding to the arrangement direction. a detector (110, 210, 310) configured to detect the user operation; and a controller (110, 210, 310) configured to acquire information on an arrangement of the plurality of image displaying apparatuses and to switch a control target apparatus among the image displaying apparatuses when a user operation is detected (S604:YES) which inputs a direction corresponding to an arrangement direction of the plurality of image displaying apparatuses indicated by the information on the arrangement, characterized in that, in a case where the information on the arrangement indicates a horizontal or a vertical arrangement direction of the plurality of image displaying apparatuses, the controller is configured to switch between an individual adjustment control and a collective adjustment control for the plurality of image displaying apparatuses when a user operation is detected (S604:NO) which inputs a direction not corresponding to the arrangement direction.
A cabinet for an power electronic apparatus, comprising: an external case that accommodates a module accommodation unit; a duct that is formed in one side wall of the external case; an intake hole that is formed in the lower portion of the duct; a circulation fan that is provided in the upper portion of the duct; and a heat dissipation plate that is fastened to one side of an power electronic module that is accommodated in the module accommodation unit; characterized in that: an oscillating capillary tube heat pipe unit that is mounted on the heat dissipation plate, wherein the oscillating capillary tube heat pipe unit is formed in a bent manner, and passes through a mounting hole formed in a partition between the module accommodation unit and the duct, and wherein a heat dissipation portion of oscillating capillary tube heat pipe unit stays within the duct and a heat-absorbing portion of the oscillating capillary tube heat pipe unit is connected to the heat dissipation plate. an external case that accommodates a module accommodation unit; a duct that is formed in one side wall of the external case; an intake hole that is formed in the lower portion of the duct; a circulation fan that is provided in the upper portion of the duct; and a heat dissipation plate that is fastened to one side of an power electronic module that is accommodated in the module accommodation unit; an oscillating capillary tube heat pipe unit that is mounted on the heat dissipation plate, wherein the oscillating capillary tube heat pipe unit is formed in a bent manner, and passes through a mounting hole formed in a partition between the module accommodation unit and the duct, and wherein a heat dissipation portion of oscillating capillary tube heat pipe unit stays within the duct and a heat-absorbing portion of the oscillating capillary tube heat pipe unit is connected to the heat dissipation plate.
A programmable integrated circuit (10, 350), comprising: a first hardware accelerator corresponding to a first software function, wherein the first hardware accelerator is configured to perform the first software function on data received from an external host processor coupled to the programmable integrated circuit (10, 350) in response to a set of conditions being satisfied and to generate corresponding first output data; and a second hardware accelerator corresponding to a second software function that is different than the first function, wherein the first and second software functions are called by the external host processor, and wherein the second hardware accelerator is configured to receive the first output data from the first hardware accelerator in accordance with a predetermined chaining signal, to perform the second software function on the first output data received from the first hardware accelerator without routing the first output data off of the programmable integrated circuit (10, 350), and to generate corresponding second output data. a first hardware accelerator corresponding to a first software function, wherein the first hardware accelerator is configured to perform the first software function on data received from an external host processor coupled to the programmable integrated circuit (10, 350) in response to a set of conditions being satisfied and to generate corresponding first output data; and a second hardware accelerator corresponding to a second software function that is different than the first function, wherein the first and second software functions are called by the external host processor, and wherein the second hardware accelerator is configured to receive the first output data from the first hardware accelerator in accordance with a predetermined chaining signal, to perform the second software function on the first output data received from the first hardware accelerator without routing the first output data off of the programmable integrated circuit (10, 350), and to generate corresponding second output data.
A method in a wireless receiver (110, 120) of compensating common phase error in a received wireless signal, the method comprising: receiving, from a wireless transmitter (110, 120), a value N of a length of an orthogonal cover code, in downlink control information, DCI; receiving, from the wireless transmitter (110, 120), a first symbol of the wireless signal, the first symbol comprising: a demodulation reference signal, DM-RS, that is code division multiplexed with a common phase error reference signal, CPE-RS, characterised in that the DM-RS uses for the code division multiplexing an orthogonal cover code with a length M, the CPE-RS uses for the code division multiplexing the length N orthogonal cover code, wherein N is less than or equal to M, and N corresponds to the received DCI value; determining M code points in the first symbol associated with the orthogonal cover code with the length M of the DM-RS; estimating a channel corresponding to the received wireless signal using the M code points associated with the DM-RS; estimating the CPE-RS corresponding to the estimated channel using N code points of the M code points associated with the DM-RS; and compensating the estimated channel for phase error using the estimated CPE-RS. receiving, from a wireless transmitter (110, 120), a value N of a length of an orthogonal cover code, in downlink control information, DCI; receiving, from the wireless transmitter (110, 120), a first symbol of the wireless signal, the first symbol comprising: a demodulation reference signal, DM-RS, that is code division multiplexed with a common phase error reference signal, CPE-RS, characterised in that the DM-RS uses for the code division multiplexing an orthogonal cover code with a length M, the CPE-RS uses for the code division multiplexing the length N orthogonal cover code, wherein N is less than or equal to M, and N corresponds to the received DCI value; determining M code points in the first symbol associated with the orthogonal cover code with the length M of the DM-RS; estimating a channel corresponding to the received wireless signal using the M code points associated with the DM-RS; estimating the CPE-RS corresponding to the estimated channel using N code points of the M code points associated with the DM-RS; and compensating the estimated channel for phase error using the estimated CPE-RS.
A condenser dryer or a washing machine having drying function comprising: at least one nozzle arrangement (6, 80, 88) adapted to supply at least one fluid-phase additive into a storing compartment of said condenser dryer or washing machine having drying function, the nozzle arrangement (6, 80, 88) comprising: at least one nozzle (8, 62, 64), each being adapted to feed an additive; and at least one trapping device (10, 72, 82, 90, 94), wherein said at least one trapping device (10, 72, 82, 90, 94) is adapted to trap and/or to remove liquid leaving the at least one nozzle (8, 62, 64) or forming at or close to the nozzle, and to trap and/or to remove particles leaving the at least one nozzle (8, 62, 64) or forming at the nozzle. at least one nozzle arrangement (6, 80, 88) adapted to supply at least one fluid-phase additive into a storing compartment of said condenser dryer or washing machine having drying function, the nozzle arrangement (6, 80, 88) comprising: at least one nozzle (8, 62, 64), each being adapted to feed an additive; and at least one trapping device (10, 72, 82, 90, 94), wherein said at least one trapping device (10, 72, 82, 90, 94) is adapted to trap and/or to remove liquid leaving the at least one nozzle (8, 62, 64) or forming at or close to the nozzle, and to trap and/or to remove particles leaving the at least one nozzle (8, 62, 64) or forming at the nozzle. at least one nozzle (8, 62, 64), each being adapted to feed an additive; and at least one trapping device (10, 72, 82, 90, 94), wherein said at least one trapping device (10, 72, 82, 90, 94) is adapted to trap and/or to remove liquid leaving the at least one nozzle (8, 62, 64) or forming at or close to the nozzle, and to trap and/or to remove particles leaving the at least one nozzle (8, 62, 64) or forming at the nozzle.
A catheter comprising: a tubular inner layer (10d; 10e); a reinforcement layer present inside the inner layer (10d; 10e) or on an outer periphery of the inner layer (10d; 10e), the reinforcement layer having a wire wound therearound so that a gap is present between adjacent portions of the wire; and an outer layer (40d; 40e) covering the reinforcement layer, wherein: the inner layer (10d; 10e) has an uneven outer peripheral surface (15d; 15e) on which a protruded portion (22d; 22e) is formed in a location of the wire, and a depressed portion (24d; 24e) is formed in a location of the gap, and the outer layer (40d; 40e) has a protrusion part (50d; 50e; 50f) in the depressed portion (24d; 24e) of the inner layer (10d; 10e), the protrusion part (50d; 50e; 50f) entering deeper than the reinforcement layer through the gap and extending in an axis direction of the catheter, characterized in that a length of the protrusion part (50d; 50e; 50f) of the outer layer (40d; 40e) in the axis direction of the catheter is longer than a length of the gap of the reinforcement layer in the axis direction of the catheter. a tubular inner layer (10d; 10e); a reinforcement layer present inside the inner layer (10d; 10e) or on an outer periphery of the inner layer (10d; 10e), the reinforcement layer having a wire wound therearound so that a gap is present between adjacent portions of the wire; and an outer layer (40d; 40e) covering the reinforcement layer, wherein: the inner layer (10d; 10e) has an uneven outer peripheral surface (15d; 15e) on which a protruded portion (22d; 22e) is formed in a location of the wire, and a depressed portion (24d; 24e) is formed in a location of the gap, and the outer layer (40d; 40e) has a protrusion part (50d; 50e; 50f) in the depressed portion (24d; 24e) of the inner layer (10d; 10e), the protrusion part (50d; 50e; 50f) entering deeper than the reinforcement layer through the gap and extending in an axis direction of the catheter, characterized in that a length of the protrusion part (50d; 50e; 50f) of the outer layer (40d; 40e) in the axis direction of the catheter is longer than a length of the gap of the reinforcement layer in the axis direction of the catheter. the inner layer (10d; 10e) has an uneven outer peripheral surface (15d; 15e) on which a protruded portion (22d; 22e) is formed in a location of the wire, and a depressed portion (24d; 24e) is formed in a location of the gap, and the outer layer (40d; 40e) has a protrusion part (50d; 50e; 50f) in the depressed portion (24d; 24e) of the inner layer (10d; 10e), the protrusion part (50d; 50e; 50f) entering deeper than the reinforcement layer through the gap and extending in an axis direction of the catheter, characterized in that a length of the protrusion part (50d; 50e; 50f) of the outer layer (40d; 40e) in the axis direction of the catheter is longer than a length of the gap of the reinforcement layer in the axis direction of the catheter.
A method, characterised by comprising: receiving, by a processor of a network element (101, 103, 105, 403, 501) from a user equipment, an indication of the version of an additional maximum power reduction table supported by the user equipment (102, 104, 106, 401, 511), wherein the version is associated with a standard.
A method of additively manufacturing a propellant element, the method comprising: mixing together fuel, oxidizer, and a binder, to form a propellant mixture; after the mixing, adding a curative to the propellant mixture to produce a curable propellant mixture; after the adding the curative, partially curing the curable propellant mixture; and after the partially curing, dispensing the curable propellant mixture as part of the propellant element; wherein the partially curing includes heating the curable propellant mixture above a cure temperature of the curable propellant mixture; and wherein the heating includes heating the curable propellant mixture prior to the dispensing, such that the curing of the curable propellant mixture is completed while the curable propellant mixture cools after the dispensing. mixing together fuel, oxidizer, and a binder, to form a propellant mixture; after the mixing, adding a curative to the propellant mixture to produce a curable propellant mixture; after the adding the curative, partially curing the curable propellant mixture; and after the partially curing, dispensing the curable propellant mixture as part of the propellant element; wherein the partially curing includes heating the curable propellant mixture above a cure temperature of the curable propellant mixture; and wherein the heating includes heating the curable propellant mixture prior to the dispensing, such that the curing of the curable propellant mixture is completed while the curable propellant mixture cools after the dispensing.
A handheld ultrasonic drilling machine comprising a motor for rotatably driving a drilling tool about an axis of rotation and a vibration exciter unit which is designed to produce ultrasonic vibrations, the motor and the vibration exciter unit being supplied with electrical energy by a storage battery, characterized in that the motor is coupled to the storage battery by means of a prioritization circuit, and in that the prioritization circuit is designed to prioritize, at least temporarily, the supply of the vibration exciter unit with electrical energy over the supply of the motor with electrical energy.