mhurhangee/ep-ind-claims huggingface dataset:
A method of processing a spectral emission mask in a communication device having a first radio interface and a second radio interface, wherein the spectral emission mask is indicative of an emission level associated with the first radio interface, the method comprising the following steps performed for the first radio interface: • performing a transmission via the first radio interface; • receiving, from the second radio interface, a measurement report for the transmission; and • adapting an initial spectral emission mask based on the measurement report. • performing a transmission via the first radio interface; • receiving, from the second radio interface, a measurement report for the transmission; and • adapting an initial spectral emission mask based on the measurement report.
A virtual device for use with Internet of Things, the virtual device acting as a proxy for a real or simulated device, comprising: a first application interface operable to register the virtual device with a registrar computer; a second application interface configured to receive a data feed request from the registrar computer, the data feed request comprising information enabling communication between the virtual device and a virtual requestor device and information identifying a data feed associated with the virtual device, produced by the real or simulated device; and a logic module in communication with the first and second application interfaces, the logic module configured to, in response to determining the data feed request is to be granted, provide the identified data feed to the virtual requestor device using the information enabling communication between the virtual device and the virtual requestor device.
A head and neck support device for an occupant of a vehicle with a shoulder harness over the shoulders of the occupant and a helmet on a head of the occupant, which comprises: a yoke having a front portion and a rear portion; and a tether having a first end and a second end; characterized by further comprising at least one sleeve member attached to the yoke, wherein the at least one sleeve member defines a cavity therethrough, through which the tether is slideably received, such that a sliding tether arrangement allows the occupant side-to-side rotary head mobility around an axis that extends generally co-axial through the vertebra of the neck of the user, when the yoke is connected by the tether to the helmet on the head of the occupant. a yoke having a front portion and a rear portion; and a tether having a first end and a second end; characterized by further comprising at least one sleeve member attached to the yoke, wherein the at least one sleeve member defines a cavity therethrough, through which the tether is slideably received, such that a sliding tether arrangement allows the occupant side-to-side rotary head mobility around an axis that extends generally co-axial through the vertebra of the neck of the user, when the yoke is connected by the tether to the helmet on the head of the occupant.
A control mechanism operable by a mechanical multiple axis handle (40; 201; 305; 401; 501; 701; 802) movable about a first and a second axis of rotation, the control mechanism further comprising: an operated device (41; 203; 307; 412; 600), comprising a base block, a base static plate and a movable plate movable over the base static plate, wherein rotating the movable plate over the base static plate sets a first control parameter, and sliding the movable plate over the base static plate sets a second control parameter; and a movement transformation assembly (42; 202; 306; 410; 702; 803) to transform rotational movements to control commands to the operated device, wherein the movement transformation assembly comprises: a rocker (726; 828); a first member (734; 840) to transfer rotational movements about the first axis of rotation to control commands to the operated device, the first member anchorable to a handle and fixed to the base block, the first member to rotate the base block that rotates the movable plate over the base static plate when there is a rotation about the first axis of rotation; and a second member, said second member comprising an elongated rod (210; 710; 810) to transfer rotation movements about the second axis of rotation to control commands to the operated device, a first end of the rod anchorable to the handle at a distance from the second axis of rotation such that when there is a rotation about the second axis of rotation, the elongated rod moves substantially back and forth relatively to the operated device, a second end of the rod is anchored to a first end of the rocker and the rocker is anchored to the first member, such that when the rod moves towards or away from the operated device, the rocker slides the movable plate over the base static plate. a rocker (726; 828); a first member (734; 840) to transfer rotational movements about the first axis of rotation to control commands to the operated device, the first member anchorable to a handle and fixed to the base block, the first member to rotate the base block that rotates the movable plate over the base static plate when there is a rotation about the first axis of rotation; and a second member, said second member comprising an elongated rod (210; 710; 810) to transfer rotation movements about the second axis of rotation to control commands to the operated device, a first end of the rod anchorable to the handle at a distance from the second axis of rotation such that when there is a rotation about the second axis of rotation, the elongated rod moves substantially back and forth relatively to the operated device, a second end of the rod is anchored to a first end of the rocker and the rocker is anchored to the first member, such that when the rod moves towards or away from the operated device, the rocker slides the movable plate over the base static plate.
A battery module, comprising: a cartridge laminate including a plurality of secondary batteries, each having an electrode lead, and a plurality of cartridges configured to respectively accommodate at least one secondary battery among the secondary batteries and stacked at multi stages; an integrated circuit board housing having a bus bar connected to the electrode lead at a predetermined connection point and coupled to one surface of the cartridge laminate; and a sensing unit having a connection wire disposed to pass through the ICB housing and connected to the bus bar to allow voltages of the secondary batteries to be sensed, wherein the ICB housing further includes a wire fixing unit having a wire fixing recess formed by indenting an outer surface of the ICB housing toward an inner surface of the ICB housing to be located near the inner surface of the ICB housing in comparison to the connection point, and at least a part of the connection wire is inserted into and fixed in the wire fixing recess. a cartridge laminate including a plurality of secondary batteries, each having an electrode lead, and a plurality of cartridges configured to respectively accommodate at least one secondary battery among the secondary batteries and stacked at multi stages; an integrated circuit board housing having a bus bar connected to the electrode lead at a predetermined connection point and coupled to one surface of the cartridge laminate; and a sensing unit having a connection wire disposed to pass through the ICB housing and connected to the bus bar to allow voltages of the secondary batteries to be sensed, wherein the ICB housing further includes a wire fixing unit having a wire fixing recess formed by indenting an outer surface of the ICB housing toward an inner surface of the ICB housing to be located near the inner surface of the ICB housing in comparison to the connection point, and at least a part of the connection wire is inserted into and fixed in the wire fixing recess.
A composition comprising dihomo-γ-linolenic acid (DGLA) in the form of a glyceride for use in preventing or treating: (i) diseases of the skin, respiratory system or digestive system related to eosinophil infiltration or increased cell counts thereof selected from the group consisting of atopic dermatitis, bronchial asthma, chronic obstructive pulmonary disease (COPD), hypersensitivity pneumonitis, eosinophilic pneumonia, eosinophilic gastroenteritis or ulcerative colitis, or (ii) diseases related to increased mast cell counts selected from the group consisting of atopic dermatitis, basal cell carcinoma, prickle cell carcinoma, bronchial asthma, pollinosis, allergic rhinitis and allergic conjunctivitis, wherein the DGLA is administered orally in an ingested amount of 5 mg - 600 mg per adult human per day. (i) diseases of the skin, respiratory system or digestive system related to eosinophil infiltration or increased cell counts thereof selected from the group consisting of atopic dermatitis, bronchial asthma, chronic obstructive pulmonary disease (COPD), hypersensitivity pneumonitis, eosinophilic pneumonia, eosinophilic gastroenteritis or ulcerative colitis, or (ii) diseases related to increased mast cell counts selected from the group consisting of atopic dermatitis, basal cell carcinoma, prickle cell carcinoma, bronchial asthma, pollinosis, allergic rhinitis and allergic conjunctivitis, wherein the DGLA is administered orally in an ingested amount of 5 mg - 600 mg per adult human per day.
An end effector for use with a surgical device, the end effector comprising: a drive assembly; a driver disposed in mechanical cooperation with the drive assembly, wherein the drive assembly includes a helical groove configured to engage a portion of the driver, such that rotation of the drive assembly in a first direction causes distal translation of the driver with respect to the drive assembly; a needle assembly disposed in mechanical cooperation with the driver, wherein distal translation of the driver causes a corresponding distal translation of the needle assembly; and a biasing element disposed in mechanical cooperation with the needle assembly, the biasing element configured to bias the needle assembly proximally; characterised in that the end effector further comprises: an end cap disposed adjacent a distal portion of the driver, the end cap being distally translatable with respect to the drive assembly; and a lock disposed in mechanical cooperation with a portion of the end cap, the lock configured to help prevent the needle assembly from moving proximally with respect to the driver until the needle assembly has reached a predetermined longitudinal position. a drive assembly; a driver disposed in mechanical cooperation with the drive assembly, wherein the drive assembly includes a helical groove configured to engage a portion of the driver, such that rotation of the drive assembly in a first direction causes distal translation of the driver with respect to the drive assembly; a needle assembly disposed in mechanical cooperation with the driver, wherein distal translation of the driver causes a corresponding distal translation of the needle assembly; and a biasing element disposed in mechanical cooperation with the needle assembly, the biasing element configured to bias the needle assembly proximally; characterised in that the end effector further comprises: an end cap disposed adjacent a distal portion of the driver, the end cap being distally translatable with respect to the drive assembly; and a lock disposed in mechanical cooperation with a portion of the end cap, the lock configured to help prevent the needle assembly from moving proximally with respect to the driver until the needle assembly has reached a predetermined longitudinal position. an end cap disposed adjacent a distal portion of the driver, the end cap being distally translatable with respect to the drive assembly; and a lock disposed in mechanical cooperation with a portion of the end cap, the lock configured to help prevent the needle assembly from moving proximally with respect to the driver until the needle assembly has reached a predetermined longitudinal position.
A bag connecting element for the connection of a bag (101, 101A, 101 B) to a container for the contamination-free filling or emptying of the bag (101, 101 A, 101 B) having a through-opening for the material to be filled or to be emptied, with a connection section having at least one first fixing means, with a holder for receiving a bag section of the bag (101, 101A, 101B)wherein the bag (101, 101A, 101B) is advantageously held in the holder by means of a holding element (102, 102A, 102B) characterised in that the at least one first fixing means is suitable for joining with a further bag connecting element or for fixing to container connecting element of a container and in that a connecting section is present which has at least one second fixing means for joining the bag connecting element with a further bag connecting element, wherein the at least one second fixing means is designed to complement the at least one first fixing means.
The electrode holder for a welding torch having a non-fusing electrode consisting of a receiving body provided with a longitudinal borehole for the inclusion of a longitudinal section of an electrode, wherein the receiving body is provided in a clamping area with a longitudinal slit for forming clamping segments (29, 30) and features a connecting device in a mounting area bordering on the clamping area for connecting a tensioning device arranged on a burner head of the welding torch, wherein the clamping area has an outer cone which, when the electrode holder is arranged in an electrode holder receiver, which is received within a burner head, interacts with an inner cone of the electrode holder receiver in such a way that when a connection is produced between the connection device of the electrode holder and the tensioning device by axially clamping tension of the inner cone with the outer cone in the clamping area of the receiving body, a radial clamping force acts on the electrode, wherein the longitudinal slit formed in the receiving body spans over the outer cone to the front end of the receiving body characterized in that the front end forms a frontal axial border of the longitudinal slit in the receiving body in such a way that the axial end of the longitudinal slit is distanced from an axial end of the receiving body by the front end.
A composite material comprising: (i) a matrix of an aluminum alloy comprising, in weight percent: Si 0.05 - 0.30, Fe 0.04 - 0.6, Mn 0.80 - 1.50, Mg 0.80 - 1.50, Cu 0.20 max, optionally Mo, and if any 0.25 max, and the balance being aluminum and unavoidable impurities; and (ii) particles of a filler material dispersed within the matrix, wherein the filler material is B 4 C, the particles are at least partially coated with a reaction product between an additive and B and the additive is selected from the group consisting of Ti, Cr, V, Nb, Zr, Sr, Sc and any combination thereof. (i) a matrix of an aluminum alloy comprising, in weight percent: Si 0.05 - 0.30, Fe 0.04 - 0.6, Mn 0.80 - 1.50, Mg 0.80 - 1.50, Cu 0.20 max, optionally Mo, and if any 0.25 max, and the balance being aluminum and unavoidable impurities; and (ii) particles of a filler material dispersed within the matrix, wherein the filler material is B 4 C, the particles are at least partially coated with a reaction product between an additive and B and the additive is selected from the group consisting of Ti, Cr, V, Nb, Zr, Sr, Sc and any combination thereof.
A fuel spray nozzle for a combustor in a gas turbine engine, the fuel spray nozzle comprising: a primary atomiser configured to discharge a primary flow of swirled atomised fuel along and around a fuel spray nozzle axis, the primary atomiser comprising a primary outer air swirler disposed radially outwardly of a primary fuel pre-filmer channel; and a secondary atomiser around the primary atomiser comprising a secondary inner air swirler (60, 90) configured to swirl flow along a secondary inner air channel, the secondary inner air swirler (60, 90) being disposed radially inwardly of a secondary fuel pre-filmer channel of the secondary atomiser; wherein a primary outer air channel is defined between the primary outer air swirler and the secondary inner air swirler (60, 90); wherein the secondary inner air swirler (60, 90) comprises a splitter wall configured to separate swirling flow in the secondary inner air channel from the primary flow of atomised fuel; and wherein the secondary inner air swirler (60, 90) comprises a primary cap wall integral with and extending radially inwardly from the splitter wall to direct flow from the primary outer air channel inwardly towards the fuel spray nozzle axis; characterised in that the primary cap wall comprises splitter cooling holes configured to admit air from the primary outer air channel to form a cooling film along the splitter wall and wherein the primary cap wall comprises a conical wall configured to direct flow from the primary outer air channel towards the fuel spray nozzle axis, and a radially-extending wall between the splitter wall and the conical wall. a primary atomiser configured to discharge a primary flow of swirled atomised fuel along and around a fuel spray nozzle axis, the primary atomiser comprising a primary outer air swirler disposed radially outwardly of a primary fuel pre-filmer channel; and a secondary atomiser around the primary atomiser comprising a secondary inner air swirler (60, 90) configured to swirl flow along a secondary inner air channel, the secondary inner air swirler (60, 90) being disposed radially inwardly of a secondary fuel pre-filmer channel of the secondary atomiser; wherein a primary outer air channel is defined between the primary outer air swirler and the secondary inner air swirler (60, 90); wherein the secondary inner air swirler (60, 90) comprises a splitter wall configured to separate swirling flow in the secondary inner air channel from the primary flow of atomised fuel; and wherein the secondary inner air swirler (60, 90) comprises a primary cap wall integral with and extending radially inwardly from the splitter wall to direct flow from the primary outer air channel inwardly towards the fuel spray nozzle axis; characterised in that the primary cap wall comprises splitter cooling holes configured to admit air from the primary outer air channel to form a cooling film along the splitter wall and wherein the primary cap wall comprises a conical wall configured to direct flow from the primary outer air channel towards the fuel spray nozzle axis, and a radially-extending wall between the splitter wall and the conical wall.
A process for preparing a structural membrane comprising a top sheet including a cap layer (12, 116, 216) and an upper inner layer (14, 112, 212), and a bottom sheet including a lower inner layer (114, 214) and a core layer (18, 118, 218), the process including the steps of: co-extruding first and second polymeric materials through a common die to form said top sheet, wherein said first polymeric material includes additives and forms said cap layer (12, 116, 216) and said second polymeric material forms said upper inner layer (14, 112, 212); co-extruding third and fourth polymeric materials through a second die to form said bottom sheet, wherein said third polymeric material forms said lower inner layer (114, 214) and said fourth polymeric material forms said core layer (18, 118, 218); and bonding said top sheet to said bottom sheet, wherein at least one of said first, second, third, and fourth polymeric materials comprise a thermoplastic polyolefin.
A radiation image acquisition device comprising: a radiation source configured to emit radiation; a wavelength conversion member of a flat plate shape configured to generate scintillation light according to incidence of the radiation emitted from the radiation source and transmitted by an object; first imaging means configured to condense and image the scintillation light emitted from an entrance surface for the radiation in the wavelength conversion member in a direction of a normal to the entrance surface; second imaging means configured to condense and image the scintillation light emitted from a surface opposite to the entrance surface in the wavelength conversion member in a direction of a normal to the opposite surface; and an image processing means configured to execute image processing based on the image signals output from the first imaging means and second imaging means, wherein each of the first imaging means and the second imaging means has: a condensing lens unit for condensing the scintillation light emitted from the wavelength conversion member; and an imaging unit for imaging the scintillation light thus condensed, the condensing lens unit of the first imaging means being configured to focus on the entrance surface and the condensing lens unit of the second imaging means being configured to focus on the back surface, and the image processing means being configured to execute a differential operation based on each of the image signals, as the image processing. a radiation source configured to emit radiation; a wavelength conversion member of a flat plate shape configured to generate scintillation light according to incidence of the radiation emitted from the radiation source and transmitted by an object; first imaging means configured to condense and image the scintillation light emitted from an entrance surface for the radiation in the wavelength conversion member in a direction of a normal to the entrance surface; second imaging means configured to condense and image the scintillation light emitted from a surface opposite to the entrance surface in the wavelength conversion member in a direction of a normal to the opposite surface; and an image processing means configured to execute image processing based on the image signals output from the first imaging means and second imaging means, wherein each of the first imaging means and the second imaging means has: a condensing lens unit for condensing the scintillation light emitted from the wavelength conversion member; and an imaging unit for imaging the scintillation light thus condensed, a condensing lens unit for condensing the scintillation light emitted from the wavelength conversion member; and an imaging unit for imaging the scintillation light thus condensed, the condensing lens unit of the first imaging means being configured to focus on the entrance surface and the condensing lens unit of the second imaging means being configured to focus on the back surface, and the image processing means being configured to execute a differential operation based on each of the image signals, as the image processing.
An activation method for bandwidth part, BWP, comprising: receiving, by a terminal, first information on a first BWP from a network device, wherein the first information is used to activate a second BWP; transmitting, by the terminal, feedback response information corresponding to the first information within a time unit after a time unit occupied by the first information; and determining, by the terminal, that the second BWP is activated after a target time period starting from the end of the time unit within which the feedback response information is transmitted, wherein the time unit within which the feedback response information is transmitted is indicated by configuration information received from the network device; wherein a duration of the target time period is stipulated by a first preset protocol. receiving, by a terminal, first information on a first BWP from a network device, wherein the first information is used to activate a second BWP; transmitting, by the terminal, feedback response information corresponding to the first information within a time unit after a time unit occupied by the first information; and determining, by the terminal, that the second BWP is activated after a target time period starting from the end of the time unit within which the feedback response information is transmitted, wherein the time unit within which the feedback response information is transmitted is indicated by configuration information received from the network device; wherein a duration of the target time period is stipulated by a first preset protocol.