mhurhangee/patent-ind-claim-en huggingface dataset:
Scooter (V) comprising a user support platform , a front wheel (W), a front fork of the front wheel (W), and suspension means of the front wheel (W), the suspension means (S) comprising a single leaf spring linked to the platform , the single leaf spring comprising a front end , the single leaf spring being movable or deformable only in planes parallel to a median plane of the platform such that the front fork of the front wheel (W) is rotatable with respect to the single leaf spring to allow steering of the scooter, characterized in that the front fork of the front wheel (W) leans on the front end of the single leaf spring , such that the suspension means transmit the impacts to the platform, wherein the front end of the single leaf spring is above the wheel (W) such that the suspension means transmit the impacts to the platform through a region located just above the front wheel (W), the front fork of the front wheel (W) bearing on a lower surface of the single leaf spring .
A tissue removal device, comprising: a distal portion , comprising: an outer distal portion including a tissue removal tool (164; 166), wherein the tissue removal tool is disposed on a portion of a circumference of the outer distal portion ; and an inner distal portion positioned within the outer distal portion and having a closed distal end , a lumen, and at least one side port , wherein the lumen is configured to receive a medical device , and the inner distal portion is movable relative to the outer distal portion and the medical device . an outer distal portion including a tissue removal tool (164; 166), wherein the tissue removal tool is disposed on a portion of a circumference of the outer distal portion ; and an inner distal portion positioned within the outer distal portion and having a closed distal end , a lumen, and at least one side port , wherein the lumen is configured to receive a medical device , and the inner distal portion is movable relative to the outer distal portion and the medical device .
A device arrangement for accumulating excess heat in a natural water-permeable layer and for its recovery, comprising a heat storage filled with water, which constitutes a closed area, separated from the water-permeable layer by means of anti-filtration walls, being vertical or having slope close to vertical, made of the ground surface to a depth below the floor of the water-permeable layer, and also comprising at least one extraction well situated in this area and a heat exchanger, at least one discharge well and at least one pump, wherein the anti-filtration walls are diaphragm walls that constitute a thermally insulating partition, the extraction well and the discharge well are constitued by a dual-function extraction-discharge well equipped with a discharge pipeline and an extraction pipeline hydraulically connected to the pump directly or indirectly, wherein the pump is connected by means of an electric power cable to a frequency converter which has a signal connection to a checking, measuring and control equipment , which furthermore has a signal connection to multilevel temperature and water level measuring probes located in the extraction-discharge well and in at least one control and measurement hole situated within the heat storage and in the heat exchanger , and furthermore the checking, measuring and control equipment has a signal connection to controllable valves situated on hydraulic lines that connect an extraction collector to an extraction pipeline , and to controllable valves situated on hydraulic lines that connect a discharge collector to a discharge pipeline , wherein the extraction and discharge collectors are led to the heat exchanger , and the heat storage is covered on top with a horizontal partition that constitutes an anti-filtration and thermally insulating cover.
A method for securing the power cut of a USB equipment, implemented in a USB network through which are interconnected a computer, master of the network, and at least one USB equipment, slave of the network, characterized in that , when an information of imminent power cut of the USB equipment is known by said computer, said method comprises the implementation of the following successive steps : - the sending by the computer of an information message (MG) on the USB network, containing an information of power cut of the USB equipment; - the reception of the information message (MG) by the USB equipment; - implementing by the USB device a procedure for preparing the USB device for the impending power failure, the procedure for preparing the USB device for the impending power failure comprising saving a set of parameters in a memory space of the USB device, - said information message (MG) further comprising an indication of the time interval available (DP) for the USB device before the power cut becomes effective. - the sending by the computer of an information message (MG) on the USB network, containing an information of power cut of the USB equipment; - the reception of the information message (MG) by the USB equipment; - implementing by the USB device a procedure for preparing the USB device for the impending power failure, the procedure for preparing the USB device for the impending power failure comprising saving a set of parameters in a memory space of the USB device, - said information message (MG) further comprising an indication of the time interval available (DP) for the USB device before the power cut becomes effective.
A Geostationary, GEO, communication satellite comprising: an antenna system comprising a plurality of antennas, each of the antennas configured to provide a communication coverage region having an adjustable bandwidth for a terrestrial coverage area while the antenna is in an active state and the satellite is in an orbit above Earth; a front-end subsystem communicatively coupled to the antenna system, the front-end subsystem comprising, for at least one user slice, an input side including an input filter and an analog-to-digital converter, and an output side including an output filter and a digital-to-analog converter, wherein each of one or more user slices are configured to communicate with one or more distinct gateway slices and the one or more distinct gateway slices are configured to combine or split the one or more user slices with the input side or the output side of the front-end subsystem; and a software defined radio, SDR, communicatively coupled to the antenna system via one or more user slices combined or split with the input side or the output side of the front-end subsystem, and wherein the SDR, in response to a surge modification request, modifies a throughput of each active antenna by increasing or decreasing a share of a satellite power budget allotted to the antenna by deactivating or activating a previously active or previously inactive antenna, respectively. an antenna system comprising a plurality of antennas, each of the antennas configured to provide a communication coverage region having an adjustable bandwidth for a terrestrial coverage area while the antenna is in an active state and the satellite is in an orbit above Earth; a front-end subsystem communicatively coupled to the antenna system, the front-end subsystem comprising, for at least one user slice, an input side including an input filter and an analog-to-digital converter, and an output side including an output filter and a digital-to-analog converter, wherein each of one or more user slices are configured to communicate with one or more distinct gateway slices and the one or more distinct gateway slices are configured to combine or split the one or more user slices with the input side or the output side of the front-end subsystem; and a software defined radio, SDR, communicatively coupled to the antenna system via one or more user slices combined or split with the input side or the output side of the front-end subsystem, and wherein the SDR, in response to a surge modification request, modifies a throughput of each active antenna by increasing or decreasing a share of a satellite power budget allotted to the antenna by deactivating or activating a previously active or previously inactive antenna, respectively.
Cutting or breaking tool for a device for breaking stones and the like, wherein the breaking tool is selectably securable to a breaking roll or the like, wherein the breaking tool is composed of a plurality of individual parts and wherein a plurality of breaking sub-tools is mounted on a common support part , wherein the breaking sub-tools are connected with the support part and wherein two rows of breaking sub-tools are provided, characterised in that the breaking sub-tools are interconnected preferably by brazing.
A wound closure device comprising: a wound closure strip having a wound facing side and a top side, the wound facing side comprising an adhesive applied over at least a portion of the wound facing side; a release liner assembly detachably adhered to the strip by the adhesive, the release liner assembly being a backing film comprising a first frame, a central section, and a second frame which are individually peelable; wherein the central section of the release liner assembly comprises at least one tab located at an edge of the release liner assembly; and wherein the wound closure strip does not include a polymerization initiator or rate modifier. a wound closure strip having a wound facing side and a top side, the wound facing side comprising an adhesive applied over at least a portion of the wound facing side; a release liner assembly detachably adhered to the strip by the adhesive, the release liner assembly being a backing film comprising a first frame, a central section, and a second frame which are individually peelable; wherein the central section of the release liner assembly comprises at least one tab located at an edge of the release liner assembly; and wherein the wound closure strip does not include a polymerization initiator or rate modifier.
A yarn winding apparatus forming at least one package (P) by winding at least one yarn (Y) onto at least one bobbin (B), comprising: a cylindrical rotating body configured to rotate while being in contact with an outer circumferential surface of the at least one package (P); and a static electricity remover configured to remove static electricity from the rotating body , characterized in that the static electricity remover is provided inside the rotating body without making contact with the rotating body . a cylindrical rotating body configured to rotate while being in contact with an outer circumferential surface of the at least one package (P); and a static electricity remover configured to remove static electricity from the rotating body , characterized in that the static electricity remover is provided inside the rotating body without making contact with the rotating body .
A method of generating retinal pigment epithelial (RPE) cells comprising: (a) culturing a population of human pluripotent stem cells in a medium comprising a differentiating agent to obtain differentiating cells; (b) culturing said differentiating cells in a culture comprising a medium which comprises one or more members of the TGFβ superfamily, thereby generating a mixed population of cells comprising RPE cells; (c) enzymatically removing at least 50% of said mixed population of cells from said culture without mechanical isolation of the cells, wherein more than 10 % of the cells of said mixed population of cells are non-pigmented cells; and subsequently; (d) culturing said mixed population of cells on an adherent surface to generate an expanded population of RPE cells; and (e) harvesting said expanded population of RPE cells, thereby generating the RPE cells. (a) culturing a population of human pluripotent stem cells in a medium comprising a differentiating agent to obtain differentiating cells; (b) culturing said differentiating cells in a culture comprising a medium which comprises one or more members of the TGFβ superfamily, thereby generating a mixed population of cells comprising RPE cells; (c) enzymatically removing at least 50% of said mixed population of cells from said culture without mechanical isolation of the cells, wherein more than 10 % of the cells of said mixed population of cells are non-pigmented cells; and subsequently; (d) culturing said mixed population of cells on an adherent surface to generate an expanded population of RPE cells; and (e) harvesting said expanded population of RPE cells, thereby generating the RPE cells.
A method of manufacturing a pharmaceutical product, produced by a mixture of an excipient and an active pharmaceutical ingredient, comprising: - receiving a mixture of powder or pellet material by an extruder device in a predefined ratio comprising excipient and active pharmaceutical ingredient for extruding as extruded product in a constant flow; - distributing the constant output flow of the extruded product , from the extruder to an input flow directed towards a metering pump that is suited for regulated provision of the extruded product to a print head ; - printing a product by the print head comprising one or more nozzles suited for 3D printing of the product in a metered fashion from the flow received by the metering pump; and - distributing part of the constant output flow from the extruder not provided to the print head to a remainder flow directed towards an overflow outlet. - receiving a mixture of powder or pellet material by an extruder device in a predefined ratio comprising excipient and active pharmaceutical ingredient for extruding as extruded product in a constant flow; - distributing the constant output flow of the extruded product , from the extruder to an input flow directed towards a metering pump that is suited for regulated provision of the extruded product to a print head ; - printing a product by the print head comprising one or more nozzles suited for 3D printing of the product in a metered fashion from the flow received by the metering pump; and - distributing part of the constant output flow from the extruder not provided to the print head to a remainder flow directed towards an overflow outlet.
A method performed in a wireless communications system for establishing usefulness of antenna ports, the wireless communications system monitoring antenna ports (2 1 , ..., 2 i ,..., 2 N ) of a distributed antenna system , the method comprising: - establishing , per antenna port (2 1 , ..., 2 i ,..., 2 N ), received signal strength of a wireless communication, - establishing , per antenna port (2 1 , ..., 2 i ,..., 2 N ), a quantity related to the obtained received signal strength, wherein the quantity related to the obtained received signal strength comprises one or more of: number of received wireless transmissions, number of received uplink data bits, and number of transmitted downlink data bits, and - establishing a measure on usefulness of each of two or more of the antenna ports (2 1 , ..., 2 i ,..., 2 N ) based on the received signal strength and on the quantity, wherein the measure on usefulness of antenna port i, where i=i, ..., N, is proportional to fraction T i of number of uplink data bits D i received by antenna port i such that a high fraction T i indicates high usefulness, and a low fraction T i indicates low usefulness. - establishing , per antenna port (2 1 , ..., 2 i ,..., 2 N ), received signal strength of a wireless communication, - establishing , per antenna port (2 1 , ..., 2 i ,..., 2 N ), a quantity related to the obtained received signal strength, wherein the quantity related to the obtained received signal strength comprises one or more of: number of received wireless transmissions, number of received uplink data bits, and number of transmitted downlink data bits, and - establishing a measure on usefulness of each of two or more of the antenna ports (2 1 , ..., 2 i ,..., 2 N ) based on the received signal strength and on the quantity, wherein the measure on usefulness of antenna port i, where i=i, ..., N, is proportional to fraction T i of number of uplink data bits D i received by antenna port i such that a high fraction T i indicates high usefulness, and a low fraction T i indicates low usefulness.
A method for the removal of nitrogen oxides, volatile organic compounds and particulate matter from engine exhaust gas, comprising the steps of passing the engine exhaust gas in series through an oxidation catalyst, through a particle filter and a catalyst for selective reduction of nitrogen oxides in presence of ammonia added to the engine exhaust gas either as such or in form of a precursor thereof; at an engine exhaust gas temperature of below 250°C injecting an effluent gas containing nitrogen dioxide into the engine exhaust gas upstream the catalyst for selective reduction of nitrogen oxides; characterized in that the effluent gas containing nitrogen dioxide is provided by steps of catalytically oxidizing ammonia or a precursor thereof with an oxygen containing atmosphere to an effluent gas comprising nitrogen monoxide and oxygen in presence of an oxidation catalyst; cooling the effluent gas to ambient temperature and oxidizing the nitrogen monoxide in the cooled effluent gas to nitrogen dioxide.
A refrigerator comprising: a body provided with a storage chamber; a door configured to open or close the storage chamber; a display unit provided on the door ; and a heat radiating unit configured to radiate heat generated in the display unit via a heat radiating flow path formed by a heat radiating cover , a first heat radiating duct and a second heat radiating duct ; wherein one end of the heat radiating flow path is communicated with an outside via a first opening formed in a top surface of the door , the other end of the heat radiating flow path is communicated with the outside via a second opening formed in a bottom surface of the door , the door includes an insulation member , the heat radiating unit includes the heat radiating cover disposed to cover a rear surface of the display unit , the first heat radiating duct connecting the first opening to the heat radiating cover , and the second heat radiating duct connecting the second opening to the heat radiating cover , and the insulation member is provided in each region between a front surface of the door and the first heat radiating duct , between a rear surface of the door and the first heat radiating duct , between the front surface of the door and the second heat radiating duct , and between the rear surface of the door and the second heat radiating duct . a body provided with a storage chamber; a door configured to open or close the storage chamber; a display unit provided on the door ; and a heat radiating unit configured to radiate heat generated in the display unit via a heat radiating flow path formed by a heat radiating cover , a first heat radiating duct and a second heat radiating duct ; wherein one end of the heat radiating flow path is communicated with an outside via a first opening formed in a top surface of the door , the other end of the heat radiating flow path is communicated with the outside via a second opening formed in a bottom surface of the door , the door includes an insulation member , the heat radiating unit includes the heat radiating cover disposed to cover a rear surface of the display unit , the first heat radiating duct connecting the first opening to the heat radiating cover , and the second heat radiating duct connecting the second opening to the heat radiating cover , and the insulation member is provided in each region between a front surface of the door and the first heat radiating duct , between a rear surface of the door and the first heat radiating duct , between the front surface of the door and the second heat radiating duct , and between the rear surface of the door and the second heat radiating duct .
A data transmission method performed by a second terminal, wherein the method comprises: obtaining (S405), by the second terminal, an uplink transmission resource allocated by an access network device; receiving (S406, S409), by the second terminal, sending cancelation instruction information sent by the access network device, wherein the sending cancelation instruction information is sent by the access network device to the second terminal after the access network device receives an scheduling request, SR, sent by a first terminal by using an SR resource; and canceling (S409), by the second terminal based on the sending cancelation instruction information, data sending on the uplink transmission resource allocated to the second terminal; characterized in that , if the second terminal is sending data when receiving the sending cancelation instruction information, the second terminal stops sending a currently transmitted data block. obtaining (S405), by the second terminal, an uplink transmission resource allocated by an access network device; receiving (S406, S409), by the second terminal, sending cancelation instruction information sent by the access network device, wherein the sending cancelation instruction information is sent by the access network device to the second terminal after the access network device receives an scheduling request, SR, sent by a first terminal by using an SR resource; and canceling (S409), by the second terminal based on the sending cancelation instruction information, data sending on the uplink transmission resource allocated to the second terminal; characterized in that , if the second terminal is sending data when receiving the sending cancelation instruction information, the second terminal stops sending a currently transmitted data block.
An aircraft control stick module comprising an assembly, the assembly comprising: a first shaft ; a second shaft ; a joint connecting the first and second shafts; and a gimbal mechanism , wherein the joint is nested within the gimbal mechanism and an origin of rotation of the joint is coincident with an origin of rotation of the gimbal mechanism ; wherein the gimbal mechanism provides axes of rotation for the first shaft and the joint provides axes of rotation for the first shaft ; wherein the axes of rotation provided by the gimbal mechanism and the axes of rotation provided by the joint intersect at the coincident origins of rotation; wherein the gimbal mechanism comprises a first gimbal disposed within and rotatably coupled to a second gimbal ; wherein the second gimbal is disposed within and rotatably coupled to a frame ; and wherein the assembly comprises sensors to measure and/or monitor the rotation of the first gimbal , the second gimbal , and the second shaft . a first shaft ; a second shaft ; a joint connecting the first and second shafts; and a gimbal mechanism , wherein the joint is nested within the gimbal mechanism and an origin of rotation of the joint is coincident with an origin of rotation of the gimbal mechanism ; wherein the gimbal mechanism provides axes of rotation for the first shaft and the joint provides axes of rotation for the first shaft ; wherein the axes of rotation provided by the gimbal mechanism and the axes of rotation provided by the joint intersect at the coincident origins of rotation; wherein the gimbal mechanism comprises a first gimbal disposed within and rotatably coupled to a second gimbal ; wherein the second gimbal is disposed within and rotatably coupled to a frame ; and wherein the assembly comprises sensors to measure and/or monitor the rotation of the first gimbal , the second gimbal , and the second shaft .