mhurhangee/patent-ind-claim-en huggingface dataset:
A laundry treating apparatus comprising: a tub ; a drum rotatably disposed within the tub and accommodating laundry therein; an induction heater disposed on the tub and configured to heat an outer circumferential face of the drum facing the heater ; a motor to rotate the drum ; and a controller including a processor configured to control an operation of the induction heater to dry the laundry, wherein the processor is configured to control revolution per minute (RPM) of the drum to perform at least three drum motions having at least three different target RPMs respectively when drying the laundry, wherein the drum motions include a space securing motion including a target RPM greater than a threshold spin RPM, wherein when the drum rotates at the threshold spin RPM, the laundry comes into close contact with the drum and begins to rotate integrally with the drum , wherein the drum motions include a rearrangement motion including a target RPM equal to RPM of a tumbling motion, wherein as the drum rotates at the RPM of the tumbling motion, the laundry rises up and falls down, wherein the drum motions include a conductive accelerating motion including a target RPM higher than a target RPM of the rearrangement motion and lower than a target RPM of the space securing motion, and wherein the target RPM of the conductive accelerating motion preferably is in a range of 55 to 85 RPM. a tub ; a drum rotatably disposed within the tub and accommodating laundry therein; an induction heater disposed on the tub and configured to heat an outer circumferential face of the drum facing the heater ; a motor to rotate the drum ; and a controller including a processor configured to control an operation of the induction heater to dry the laundry, wherein the processor is configured to control revolution per minute (RPM) of the drum to perform at least three drum motions having at least three different target RPMs respectively when drying the laundry, wherein the drum motions include a space securing motion including a target RPM greater than a threshold spin RPM, wherein when the drum rotates at the threshold spin RPM, the laundry comes into close contact with the drum and begins to rotate integrally with the drum , wherein the drum motions include a rearrangement motion including a target RPM equal to RPM of a tumbling motion, wherein as the drum rotates at the RPM of the tumbling motion, the laundry rises up and falls down, wherein the drum motions include a conductive accelerating motion including a target RPM higher than a target RPM of the rearrangement motion and lower than a target RPM of the space securing motion, and
A method for managing downlink control signals on a carrier from a base station of a wireless communications system, WCS, using a frequency and time downlink resource grid divided into subframes, the method comprising: receiving a first indication from a network entity of the WCS to maintain a designated set of subframes on the carrier devoid of designated downlink control signals in transmissions from the base station ; providing a second indication in a wireless transmission to a mobile entity to identify the designated set of subframes on the carrier and perform no blind decoding operations for subframes of the designated set of subframes. receiving a first indication from a network entity of the WCS to maintain a designated set of subframes on the carrier devoid of designated downlink control signals in transmissions from the base station ; providing a second indication in a wireless transmission to a mobile entity to identify the designated set of subframes on the carrier and perform no blind decoding operations for subframes of the designated set of subframes.
A linear apparatus for forming the can openings, comprising a working tabletop ; two rows of necking machining stations are arranged on the working tabletop along two linear lines parallel to each other, a can body positioning groove for positioning a can body is formed in each necking machining station, and the can body positioning grooves are arranged in parallel in terms of the axes of the can bodies positioned in the can body positioning grooves ; a vacuum adsorption hole is formed in the interior of each can body positioning groove , a vacuum chamber is arranged below the working tabletop , and the vacuum chamber communicates with the vacuum adsorption holes ; a necking machining device is correspondingly arranged on each necking machining station , the necking machining devices are positioned between the can body positioning grooves on the two rows of necking machining stations , and characterized in that the necking machining devices on the two rows of necking machining stations are in one-to-one correspondence; each necking machining device comprises a necking internal mold , a necking external mold sleeving the exterior of the necking internal mold , an external mold punch connected with the necking internal mold and an internal mold punch connected with the necking internal mold ; two disc cams are arranged between a pair of necking machining devices correspondingly in the two rows of necking machining stations , the two disc cams are isometric disc cams, in the two isometric disc cams, one isometric disc cam corresponds to and is in transmission connection with the external mold punches in the two necking machining devices , and the other isometric disc cam corresponds to and is in transmission connection with the internal mold punches in the two necking machining devices ; moreover, the disc cams sleeve a cam shaft , one end of the cam shaft is in transmission connection with a motor , and each necking external mold and the corresponding necking internal mold of the two necking machining devices correspondingly on the two rows of necking machining stations are simultaneously driven by the motor to move and return towards the can body inside the can body positioning groove of the respective necking machining station through the disc cams ; and the linear apparatus for forming the can openings also comprises a moving device , and the moving device acts on the can bodies positioned in the can body positioning grooves and is used for moving the can bodies on the stations backward by one station.
Optical module, in particular in the form of a passive optical network component, comprising a housing consisting of at least two housing parts , wherein at least one optical splitter , at least one splice holder and at least one fiber reservoir for receiving optical fibers are arranged in the housing, the housing having on a first side at least one first cable passage , via which at least one first optical fiber can be introduced into the housing and on an opposite housing side there is at least one second cable passage via which at least one second optical cable (103a-d) can be introduced into the housing , the fiber reservoir and the at least one optical splitter being arranged one behind the other in the housing in a direction from the first cable passage to the second cable passage , characterized in that the fiber reservoir , the at least one splice holder and at least a first receptacle for the at least one optical splitter are arranged in a first housing part on the largest inner surface of the first housing part in a common plane of the housing part .
A wireless communication module comprising: a wireless module board comprising an antenna ; a frequency converter mounted on the wireless module board and configured to change a frequency of a wireless signal; an amplifier phase shifter mounted on the wireless module board and configured to change a phase and an intensity of the wireless signal; a band-pass filter mounted on the wireless module board so as to be provided between the frequency converter and the amplifier phase shifter ; and a band-rejection filter formed inside the wireless module board and composed of at least a portion of a plurality of wiring layers electrically connecting the frequency converter , the amplifier phase shifter , and the band-pass filter to each other, wherein the band-rejection filter is formed so that the width of the wiring layer continuously changes as advancing in a longitudinal direction of the wiring layer . a wireless module board comprising an antenna ; a frequency converter mounted on the wireless module board and configured to change a frequency of a wireless signal; an amplifier phase shifter mounted on the wireless module board and configured to change a phase and an intensity of the wireless signal; a band-pass filter mounted on the wireless module board so as to be provided between the frequency converter and the amplifier phase shifter ; and a band-rejection filter formed inside the wireless module board and composed of at least a portion of a plurality of wiring layers electrically connecting the frequency converter , the amplifier phase shifter , and the band-pass filter to each other,
A dual sided razor cartridge comprising: a) a first face and a second face opposite the first face, b) a plurality of razor blades extending between the first and second faces; c) at least one handle engagement compartment positioned on each face for engagement of the cartridge with a razor handle ; and d) at least one guide on each of the first face and the second face along which a push pin may move during shaving. a) a first face and a second face opposite the first face, b) a plurality of razor blades extending between the first and second faces; c) at least one handle engagement compartment positioned on each face for engagement of the cartridge with a razor handle ; and d) at least one guide on each of the first face and the second face along which a push pin may move during shaving.
An emergency cardiac and electrocardiogram, ECG, electrode placement device, the device comprising: a body composed of a plurality of extension members, wherein the body comprises a main layer having a top surface, an adhesive layer, and a backing layer attached to an adhesive surface of the adhesive layer; a plurality of electrodes, each of the plurality of electrodes positioned on the adhesive surface of the adhesive layer; and an electrode connector cable extending from the body; wherein each electrode of the plurality of electrodes is connected to the electrode connector cable through i) an electrical conducting elastic material incorporated into a top layer of the main layer, ii) through a plurality of printed wires wherein each printed wire of the plurality of printed wires is printed on the top surface of the main layer, or iii) through a plurality of cables with each cable of the plurality of cables positioned between the base layer and the adhesive layer. a body composed of a plurality of extension members, wherein the body comprises a main layer having a top surface, an adhesive layer, and a backing layer attached to an adhesive surface of the adhesive layer; a plurality of electrodes, each of the plurality of electrodes positioned on the adhesive surface of the adhesive layer; and an electrode connector cable extending from the body; wherein each electrode of the plurality of electrodes is connected to the electrode connector cable through i) an electrical conducting elastic material incorporated into a top layer of the main layer, ii) through a plurality of printed wires wherein each printed wire of the plurality of printed wires is printed on the top surface of the main layer, or iii) through a plurality of cables with each cable of the plurality of cables positioned between the base layer and the adhesive layer.
A treatment device, in particular for aesthetic treatment of a patient, comprising: a switching device and an energy storage device configured for providing a signal to a magnetic field generating device; the magnetic field generating device connected to the energy storage device; wherein the magnetic field generating device is configured to provide magnetic treatment comprising a time-varying magnetic field having magnetic impulses with impulse duration in a range of 3 μs to 1 ms, magnetic flux density in a range of 0.5 Tesla to 7 Tesla and a repetition rate of the magnetic impulses in the range of 0.1 Hz to 700 Hz in order to cause a muscle contraction to the patient; characterized in that, the treatment device further comprises: a radiofrequency electrode configured to provide a radiofrequency treatment in form of a radiofrequency field in order to cause heating of the patient; wherein the radiofrequency electrode is positioned between the magnetic field generating device and the patient; and wherein the radiofrequency electrode and magnetic field generating device are configured to cause heating and the muscle contraction at the same time during a treatment session. a switching device and an energy storage device configured for providing a signal to a magnetic field generating device; the magnetic field generating device connected to the energy storage device; wherein the magnetic field generating device is configured to provide magnetic treatment comprising a time-varying magnetic field having magnetic impulses with impulse duration in a range of 3 μs to 1 ms, magnetic flux density in a range of 0.5 Tesla to 7 Tesla and a repetition rate of the magnetic impulses in the range of 0.1 Hz to 700 Hz in order to cause a muscle contraction to the patient; characterized in that, the treatment device further comprises: a radiofrequency electrode configured to provide a radiofrequency treatment in form of a radiofrequency field in order to cause heating of the patient; wherein the radiofrequency electrode is positioned between the magnetic field generating device and the patient; and wherein the radiofrequency electrode and magnetic field generating device are configured to cause heating and the muscle contraction at the same time during a treatment session. a radiofrequency electrode configured to provide a radiofrequency treatment in form of a radiofrequency field in order to cause heating of the patient; wherein the radiofrequency electrode is positioned between the magnetic field generating device and the patient; and wherein the radiofrequency electrode and magnetic field generating device are configured to cause heating and the muscle contraction at the same time during a treatment session.
A method for controlling an uplink transmit power, comprising: acquiring , by a first base station, a maximum uplink transmit power that is allocated for the first base station, wherein the maximum uplink transmit power is based on a status of an uplink resource that is scheduled by a second base station for a user equipment, UE; and configuring , by the first base station, an uplink transmit power for the UE according to the maximum uplink transmit power; wherein the acquiring, by a first base station, a maximum uplink transmit power that is allocated for the first base station, comprises: receiving, by the first base station, from the second base station or the UE, the maximum uplink transmit power that is allocated for the first base station, wherein the maximum uplink transmit power is obtained by the second base station or the UE according to the status of the uplink resource that is scheduled by the second base station for the UE. acquiring , by a first base station, a maximum uplink transmit power that is allocated for the first base station, wherein the maximum uplink transmit power is based on a status of an uplink resource that is scheduled by a second base station for a user equipment, UE; and configuring , by the first base station, an uplink transmit power for the UE according to the maximum uplink transmit power; wherein the acquiring, by a first base station, a maximum uplink transmit power that is allocated for the first base station, comprises: receiving, by the first base station, from the second base station or the UE, the maximum uplink transmit power that is allocated for the first base station, wherein the maximum uplink transmit power is obtained by the second base station or the UE according to the status of the uplink resource that is scheduled by the second base station for the UE.
A film comprising: a first transparent substrate; a second transparent substrate; a liquid crystal layer provided between the first transparent substrate and the second transparent substrate; a first transparent conductive layer provided between the first transparent substrate and the liquid crystal layer; a second transparent conductive layer provided between the second transparent substrate and the liquid crystal layer; and a gasket provided on an outer edge of the film, wherein the gasket is in direct contact with the outer edge of the liquid crystal layer, the first transparent substrate, the second transparent substrate, the first transparent conductive layer, and the second transparent conductive layer. a first transparent substrate; a second transparent substrate; a liquid crystal layer provided between the first transparent substrate and the second transparent substrate; a first transparent conductive layer provided between the first transparent substrate and the liquid crystal layer; a second transparent conductive layer provided between the second transparent substrate and the liquid crystal layer; and a gasket provided on an outer edge of the film, wherein the gasket is in direct contact with the outer edge of the liquid crystal layer, the first transparent substrate, the second transparent substrate, the first transparent conductive layer, and the second transparent conductive layer.
Conveying installation having a conveying belt , comprising a load-bearing-side cover panel and a running-side cover panel and an embedded tension member , and also having drums , load-bearing rollers and load-bearing frameworks, wherein the conveying installation forms a material-conveying upper strand (A), with a feed location for the conveying material, and a mostly material-free lower strand (B), characterized in that at least one further, i.e. additional, layer , which consists of a foamed polymer blend, is located between the load-bearing-side cover panel and the running-side cover panel , and wherein the additional foamed layer is in direct contact with the layer of the embedded tension member and the load-bearing-side cover panel and wherein the rubber for the foamed polymer layer is selected from the group consisting of natural rubber (NR), and/or butadiene rubber (BR) and/or chloroprene rubber (CR) and/or styrene-butadiene rubber (SBR) and/or nitrile rubber (NBR) and/or butyl rubber (IIR) and/or ethylene-propylene rubber (EPM) and/or ethylene-propylene-diene rubber (EPDM) and/or polyacrylate rubber (ACM) and/or epichlorohydrin rubber (ECO) and/or chlorosulfonated polyethylene rubber (CSM) and/or silicone rubber (MVQ) and/or fluoro rubber (FPM) and wherein the foamed polymer blend contains an expanding agent on the basis of at least one acrylonitrile polymer and wherein the embedded tension member comprises strands of steel running parallel in the longitudinal direction of the conveying belt.
A method of at least partially separating a polyalcohol compound from water, so as to obtain a purified product stream comprising the polyalcohol compound in an output concentration of at least 90wt%, which method comprises the steps of: - Providing a mixture of the polyalcohol compound and water, said mixture having a polyalcohol concentration; - Increasing the polyalcohol concentration of the mixture in an evaporation stage, at least a portion of which is operated at a first pressure; - Treating the mixture in a distillation stage to deliver the stream comprising the polyalcohol compound in the output concentration of at least 90wt%, which distillation stage is operated at a second pressure, Wherein the distillation stage is operated to produce steam output, that is optionally compressed to a third pressure, and is coupled to the evaporation stage, wherein the second pressure and/or any third pressure is higher than the first pressure. - Providing a mixture of the polyalcohol compound and water, said mixture having a polyalcohol concentration; - Increasing the polyalcohol concentration of the mixture in an evaporation stage, at least a portion of which is operated at a first pressure; - Treating the mixture in a distillation stage to deliver the stream comprising the polyalcohol compound in the output concentration of at least 90wt%, which distillation stage is operated at a second pressure,
An article comprising continuous filaments obtainable by the process of claim 13 wherein the continuous filaments comprise 85 wt.% to 98 wt.% of a polypropylene and 2 wt.% to 10 wt.% of a polycarbonate, wherein the continuous filaments have a linear density of at least 10 dtex per filament, characterized in that the filaments have a tensile strength of at least 650 MPa and/or a modulus of at least 10 GPa as determined according to ISO 2062:2009.
A composition, comprising a plant extract, wherein the plant extract comprises at least 0.5 mg/mL of a citrus extract and at least 0.5 mg/mL of a Four Seasons Spring tea extract, the Four Seasons Spring tea extract is obtained by water extraction, and the weight ratio of water to Four Seasons Spring tea for the extraction falls within a range of 5-20: 1-5.
A network node device , comprising: a radio transceiver configured to receive a data sequence from a plurality of user equipment over a first set of resource elements and a second set of resource elements, wherein the first set of resource elements is mapped non-orthogonally and the second set of resource elements is mapped orthogonally; and a processor configured to: - determine channel vectors based on at least the data sequence received over the first set of resource elements or the second set of resource elements, - utilize the data sequence received over the second set of resource elements to associate the determined channel vectors with each of the plurality of user equipment; and wherein the processor is further configured to determine the channel vectors based on a scaled covariance matrix of the data sequence over at least one of the first set of resource elements and the second set of resource elements, determine eigenvalues and eigenvectors of the determined scaled covariance matrix, and scale the eigenvectors to obtain a candidate set of channel vectors. a radio transceiver configured to receive a data sequence from a plurality of user equipment over a first set of resource elements and a second set of resource elements, wherein the first set of resource elements is mapped non-orthogonally and the second set of resource elements is mapped orthogonally; and a processor configured to: - determine channel vectors based on at least the data sequence received over the first set of resource elements or the second set of resource elements, - utilize the data sequence received over the second set of resource elements to associate the determined channel vectors with each of the plurality of user equipment; and - determine channel vectors based on at least the data sequence received over the first set of resource elements or the second set of resource elements, - utilize the data sequence received over the second set of resource elements to associate the determined channel vectors with each of the plurality of user equipment; and wherein the processor is further configured to determine the channel vectors based on a scaled covariance matrix of the data sequence over at least one of the first set of resource elements and the second set of resource elements, determine eigenvalues and eigenvectors of the determined scaled covariance matrix, and scale the eigenvectors to obtain a candidate set of channel vectors.