mhurhangee/ep-ind-claims huggingface dataset:
A lens system that comprises a first optical system and forms an intermediate image that is formed inside the first optical system by light from an input side, into a final image on an output side, wherein the first optical system includes a first subsystem with a negative refractive power, a second subsystem with positive refractive power that is positioned on the output side of a movable space of the first subsystem and does not move during the focusing; and a third subsystem with positive refractive power that is positioned on the output side of the second subsystem and moves during the focusing for compensating the movement of the fist subsystem to correct aberrations due to the focusing, and the first subsystem includes: a first lens that is disposed at a position closest to the intermediate image on the input side for forming the intermediate image and moves during a focusing; and a second lens that is disposed at a position closest to the intermediate image on the output side and moves together with the first lens with a constant air gap between the first lens and the second lens during the focusing. wherein the first optical system includes a first subsystem with a negative refractive power, a second subsystem with positive refractive power that is positioned on the output side of a movable space of the first subsystem and does not move during the focusing; and a third subsystem with positive refractive power that is positioned on the output side of the second subsystem and moves during the focusing for compensating the movement of the fist subsystem to correct aberrations due to the focusing, and the first subsystem includes: a first lens that is disposed at a position closest to the intermediate image on the input side for forming the intermediate image and moves during a focusing; and a second lens that is disposed at a position closest to the intermediate image on the output side and moves together with the first lens with a constant air gap between the first lens and the second lens during the focusing. a first lens that is disposed at a position closest to the intermediate image on the input side for forming the intermediate image and moves during a focusing; and a second lens that is disposed at a position closest to the intermediate image on the output side and moves together with the first lens with a constant air gap between the first lens and the second lens during the focusing.
Blowing lance for a molten metal vacuum treatment system, - wherein the blowing lance has an outer casing, which extends along a blowing lance longitudinal axis, - wherein an oxygen guide runs within the outer casing, having an oxygen outlet at an exit end of the blowing lance for the egress of oxygen, which is fed into the oxygen guide by way of an oxygen feed connection, - wherein a combustion gas guide runs within the outer casing, having a number of combustion gas outlets at the exit end of the blowing lance for the egress of a combustion gas, which is fed into the combustion gas guide by way of a combustion gas feed connection, - wherein an ignition facility is disposed in the blowing lance, which has an ignition tip for igniting a combustible gas mixture, - wherein the ignition facility can be moved between a moved out position and a retracted position, - wherein in the moved out position the ignition tip acts on a mixing region, in which the oxygen supplied to the oxygen outlet and the combustion gas exiting at the combustion gas outlets are mixed to form the ignitable gas mixture, and - wherein in the retracted position the ignition facility is retracted into a protection region, in which the ignition facility is protected from splashes from the molten metal. - wherein the blowing lance has an outer casing, which extends along a blowing lance longitudinal axis, - wherein an oxygen guide runs within the outer casing, having an oxygen outlet at an exit end of the blowing lance for the egress of oxygen, which is fed into the oxygen guide by way of an oxygen feed connection, - wherein a combustion gas guide runs within the outer casing, having a number of combustion gas outlets at the exit end of the blowing lance for the egress of a combustion gas, which is fed into the combustion gas guide by way of a combustion gas feed connection, - wherein an ignition facility is disposed in the blowing lance, which has an ignition tip for igniting a combustible gas mixture, - wherein the ignition facility can be moved between a moved out position and a retracted position, - wherein in the moved out position the ignition tip acts on a mixing region, in which the oxygen supplied to the oxygen outlet and the combustion gas exiting at the combustion gas outlets are mixed to form the ignitable gas mixture, and - wherein in the retracted position the ignition facility is retracted into a protection region, in which the ignition facility is protected from splashes from the molten metal.
A terminal block comprising: a first split body that includes one or more terminal connection parts and a first coupling portion; a second split body (22, 42) that includes one or more terminal connection parts and a second coupling portion coupled to the first coupling portion; and a coupling member that couples the first coupling portion to the second coupling portion and is configured to fix the first split body and the second split body (22, 42) to a mount member to which the terminal block (1, 2) is mounted, characterized in that the first split body has a single detent portion restricting rotation of the terminal block (1, 2) about the coupling member and that the first and second split bodies (21, 22, 42) are coupled using a single coupling member, the detent portion being located in the vicinity of a side face of the first split body, the side face being farthest from the second split body (22, 42). a first split body that includes one or more terminal connection parts and a first coupling portion; a second split body (22, 42) that includes one or more terminal connection parts and a second coupling portion coupled to the first coupling portion; and a coupling member that couples the first coupling portion to the second coupling portion and is configured to fix the first split body and the second split body (22, 42) to a mount member to which the terminal block (1, 2) is mounted,
A compression garment system comprising: a head garment portion (120, 920) configured to be donned on a head of a body, wherein the head garment portion (120, 920) comprises a plurality of head pressure applying regions (121, 921), and at least a portion of the plurality of head pressure applying regions (121, 921) defines an arcuate shape when viewed in plan view prior to being donned on the head of the body and further wherein each of the plurality of head pressure applying regions is controllable to apply pressure to a portion of the head; and a controller configured to control pressure applied by each of the plurality of head pressure applying regions (121, 921) to move lymph at least from the head towards a neck of the body. a head garment portion (120, 920) configured to be donned on a head of a body, wherein the head garment portion (120, 920) comprises a plurality of head pressure applying regions (121, 921), and at least a portion of the plurality of head pressure applying regions (121, 921) defines an arcuate shape when viewed in plan view prior to being donned on the head of the body and further wherein each of the plurality of head pressure applying regions is controllable to apply pressure to a portion of the head; and a controller configured to control pressure applied by each of the plurality of head pressure applying regions (121, 921) to move lymph at least from the head towards a neck of the body.
A method for inspecting a permanent magnet material powder, which comprises transmitting a magnetic field to a material powder of a permanent magnet, receiving the magnetic field from the material powder, and measuring a magnetic field difference between the transmitted magnetic field and the received magnetic field as magnetic characteristics of the material powder and judging the quality of the material powder by the measurement of an initial magnetization gradient dM/dH which is defined as a gradient of the rising section of a magnetization curve to which the magnetic field H is applied from the origin in which an applied magnetic field H = 0, magnetization M = 0.
An injection method for injecting a printing material into a cartridge provided with a printing material containing chamber, a printing material supply port having an opening end, and an opening path through which the inside and the outside of the printing material supply port communicate each other, the opening path having an inner path including a communication port at an end portion, the inner path being provided inside the printing material supply port, the injection method comprising: closing the inner path using a plug unit; and injecting the printing material into the printing material containing chamber through the printing material supply port after closing the inner path. closing the inner path using a plug unit; and injecting the printing material into the printing material containing chamber through the printing material supply port after closing the inner path.
A method of routing and bandwidth assignment of new paths in a wavelength switched optical network, the network being arranged to carry paths of different bandwidths, occupying different numbers of adjacent frequency slots, the method having the steps of: selecting a route for each of the new paths, and assigning (110, 120) a set of adjacent frequency slots to each respective new path, wherein for selected routes having more than one available set of sufficient adjacent frequency slots for their respective new paths, the assignment is made so as to place wider bandwidth ones of the new paths at an end of a spectrum of the available frequency slots, opposite to an end of the spectrum of the available frequency slots where narrower bandwidth ones of the new paths are placed, wherein the step of selecting the route is made according to which of the possible routes has a larger number of different sets of available adjacent frequency slots. selecting a route for each of the new paths, and assigning (110, 120) a set of adjacent frequency slots to each respective new path,
A method for wireless communications at a detecting entity, comprising: receiving semi-static system information from one or more neighboring base stations, BSs, of the detecting entity; and identifying, based on the received information, a neighbor BS whose user equipment, UE, causes interference in the physical uplink control channel, PUCCH, and identifying corresponding resources that are allocated to the interfering UE by the neighbor BS; and transmitting information about the resources that are allocated to the interfering UE to the identified neighbor BS, wherein the transmitted information is used by the neighbor BS for interference management. receiving semi-static system information from one or more neighboring base stations, BSs, of the detecting entity; and identifying, based on the received information, a neighbor BS whose user equipment, UE, causes interference in the physical uplink control channel, PUCCH, and identifying corresponding resources that are allocated to the interfering UE by the neighbor BS; and transmitting information about the resources that are allocated to the interfering UE to the identified neighbor BS, wherein the transmitted information is used by the neighbor BS for interference management.
A method for distributing adaptive bitrate ABR media in a network, the method comprising: initially ingesting a first ABR media element at a first network node; creating a first service manifest associated with the first ABR media element when the first ABR media element is initially ingested, the first service manifest comprising a plurality of directive elements, and providing constraints in the directive elements on at least one of: media catalog routing, and channel routing; receiving, at the first network node, a second ABR media element that was initially ingested at a second network node and associated with which a second service manifest was created by the second network node; and initiating distribution of each of the first and second ABR media elements and the associated first and second service manifests from the first network node to a first plurality of network nodes, wherein the method further comprises: employing the service manifest during distribution and delivery of the media to provide guidance and enforce compliance; and modifying the service manifest as it is passed through the network and documenting the modification in a packager element of the service manifest. initially ingesting a first ABR media element at a first network node; creating a first service manifest associated with the first ABR media element when the first ABR media element is initially ingested, the first service manifest comprising a plurality of directive elements, and providing constraints in the directive elements on at least one of: media catalog routing, and channel routing; receiving, at the first network node, a second ABR media element that was initially ingested at a second network node and associated with which a second service manifest was created by the second network node; and initiating distribution of each of the first and second ABR media elements and the associated first and second service manifests from the first network node to a first plurality of network nodes, wherein the method further comprises: employing the service manifest during distribution and delivery of the media to provide guidance and enforce compliance; and modifying the service manifest as it is passed through the network and documenting the modification in a packager element of the service manifest.
Contact lug for the electrically conductive connection of at least two components in the form of circuit boards (12, 13), wherein the contact lug is to be arranged between the components and is designed to apply a contact pressure to at least one of the components (12, 13), said contact pressure being exerted by elastic deformation of the contact lug, wherein the contact lug is, at least in part, formed of a bimetal, such that an increase in the temperature of the bimetal leads to an increase in the contact pressure, wherein the contact lug has a first contact region for contacting a first of the components and a second contact region for contacting a second of the components, as well being curved or angled between the contact regions, so that a deformation of the contact lug is associated with a moving-together of the two contact regions, characterised in that the contact lug comprises a first and a second flat section, characterised in that an outwardly-facing convexity is provided in the vicinity of a free end of the second flat section, the surface of which is provided as the second contact region for contacting the second of the components.
An adhesive composition comprising: a low molecular weight prepolymer produced by polymerization of a monomer mixture including a first (meth)acrylate monomer containing a photopolymerizable functional group and a second (meth)acrylate monomer; and a third (meth)acrylate monomer, wherein a weight average molecular weight of the low molecular weight prepolymer measured by gel permeation chromatography with respect to polystyrene is 5,000 g/mol to 100,000 g/mol, wherein the content of the low molecular weight prepolymer by weight with respect to 100 parts by weight of the adhesive composition is not less than the content of the third (meth)acrylate monomer by weight with respect to 100 parts by weight of the adhesive composition, wherein the content of the low molecular weight prepolymer is 40 parts by weight to 70 parts by weight with respect to 100 parts by weight of the adhesive composition, and wherein each of the second (meth)acrylate monomer and the third (meth)acrylate monomer independently includes at least one monomer selected from the group consisting of an aliphatic functional group-containing (meth)acrylate monomer, an alicyclic functional group-containing (meth)acrylate monomer, and a polar functional group-containing (meth)acrylate monomer, and wherein the photopolymerizable functional group is at least one selected from the group consisting of a benzophenone-based functional group, a quinone-based functional group and a thioxanthone-based functional group. a low molecular weight prepolymer produced by polymerization of a monomer mixture including a first (meth)acrylate monomer containing a photopolymerizable functional group and a second (meth)acrylate monomer; and a third (meth)acrylate monomer, wherein a weight average molecular weight of the low molecular weight prepolymer measured by gel permeation chromatography with respect to polystyrene is 5,000 g/mol to 100,000 g/mol, wherein the content of the low molecular weight prepolymer by weight with respect to 100 parts by weight of the adhesive composition is not less than the content of the third (meth)acrylate monomer by weight with respect to 100 parts by weight of the adhesive composition, wherein the content of the low molecular weight prepolymer is 40 parts by weight to 70 parts by weight with respect to 100 parts by weight of the adhesive composition, and wherein each of the second (meth)acrylate monomer and the third (meth)acrylate monomer independently includes at least one monomer selected from the group consisting of an aliphatic functional group-containing (meth)acrylate monomer, an alicyclic functional group-containing (meth)acrylate monomer, and a polar functional group-containing (meth)acrylate monomer, and wherein the photopolymerizable functional group is at least one selected from the group consisting of a benzophenone-based functional group, a quinone-based functional group and a thioxanthone-based functional group.
An RFID IC comprising: an RFID interface configured to receive a digitally modulated signal, wherein the digitally modulated signal comprises: a first slot with a first pulse, and a second slot with a second pulse; and a processing unit; characterized in that the processing unit is configured to determine a first position of the first pulse in the first slot, filter a region that follows the determined first position of the first pulse, determine a second position of the second pulse in the second slot, and, if the second position of the second pulse cannot be determined in the second slot, assume that the second position of the second pulse in the second slot is at the filtered region. a first slot with a first pulse, and a second slot with a second pulse; and a processing unit; characterized in that the processing unit is configured to determine a first position of the first pulse in the first slot, filter a region that follows the determined first position of the first pulse, determine a second position of the second pulse in the second slot, and, if the second position of the second pulse cannot be determined in the second slot, assume that the second position of the second pulse in the second slot is at the filtered region.
A vehicle electronic control unit, comprising: a power input port receiving electric power from a vehicle battery; a power output port providing electric power to a vehicle electronic device including an antenna that receives data transmissions from a vehicle sensor, the power output port providing substantially uninterrupted electric power from the vehicle battery to the vehicle electronic device; a communication port electrically connected to a vehicle communication bus, the communication port receiving data transmissions from the vehicle electronic device; and an electronic component, electrically connected to the communication port, initially in a first state when a vehicle ignition is off, one of the data transmissions from the vehicle electronic device received by the electronic component via the communication port, switching the electronic component from the first state to a second state when the vehicle ignition is off, the electronic component, while in the second state and while the vehicle ignition is off, receiving additional data transmissions from the vehicle electronic device indicating statuses of respective vehicle sensors. a power input port receiving electric power from a vehicle battery; a power output port providing electric power to a vehicle electronic device including an antenna that receives data transmissions from a vehicle sensor, the power output port providing substantially uninterrupted electric power from the vehicle battery to the vehicle electronic device; a communication port electrically connected to a vehicle communication bus, the communication port receiving data transmissions from the vehicle electronic device; and an electronic component, electrically connected to the communication port, initially in a first state when a vehicle ignition is off, one of the data transmissions from the vehicle electronic device received by the electronic component via the communication port, switching the electronic component from the first state to a second state when the vehicle ignition is off, the electronic component, while in the second state and while the vehicle ignition is off, receiving additional data transmissions from the vehicle electronic device indicating statuses of respective vehicle sensors.
A method for transmitting data in a wireless local area network mesh network, wherein the wireless mesh network is connected to an external network by using multiple mesh gates, wherein the method comprises: receiving, by a first mesh station, a first data frame sent by a second mesh station, wherein a transmitter address of the first data frame is a media access control, MAC, address of the second mesh station, the first mesh station belongs to the subnet of a first mesh gate, and the second mesh station belongs to the subnet of a second mesh gate; and determining, by the first mesh station, that the first data frame is a broadcast data frame, a multicast data frame, or an unknown unicast data frame; determining, according to the MAC address of the second mesh station, that the first mesh station and the second mesh station belong to different mesh gates; and discarding the first data frame. receiving, by a first mesh station, a first data frame sent by a second mesh station, wherein a transmitter address of the first data frame is a media access control, MAC, address of the second mesh station, the first mesh station belongs to the subnet of a first mesh gate, and the second mesh station belongs to the subnet of a second mesh gate; and determining, by the first mesh station, that the first data frame is a broadcast data frame, a multicast data frame, or an unknown unicast data frame; determining, according to the MAC address of the second mesh station, that the first mesh station and the second mesh station belong to different mesh gates; and discarding the first data frame.