mhurhangee/ep-ind-claims huggingface dataset:
A computer implemented method for predicting interbed multiples, comprising: generating trace geometries for one or more desired shot-side traces, one or more desired receiver-side traces, and one or more desired interbed multiple generator traces, for a first target trace; extracting a first set of reflections at the interbed multiple generator layer from one or more recorded traces closest to the desired interbed multiple generator trace(s); extracting a second set of reflections below the interbed multiple generator layer from one or more recorded traces closest to the desired shot-side trace(s); extracting a third set of reflections below the interbed multiple generator layer from one or more recorded traces closest to the desired receiver-side trace(s); and estimating the interbed multiples for the first target trace based on the first set, the second set, and the third set. generating trace geometries for one or more desired shot-side traces, one or more desired receiver-side traces, and one or more desired interbed multiple generator traces, for a first target trace; extracting a first set of reflections at the interbed multiple generator layer from one or more recorded traces closest to the desired interbed multiple generator trace(s); extracting a second set of reflections below the interbed multiple generator layer from one or more recorded traces closest to the desired shot-side trace(s); extracting a third set of reflections below the interbed multiple generator layer from one or more recorded traces closest to the desired receiver-side trace(s); and estimating the interbed multiples for the first target trace based on the first set, the second set, and the third set.
A free-moving transport carriage for conveying at least one workpiece, in particular for conveying at least one vehicle body, along a conveying route (S F) in variable conveying directions (R F), having a) a chassis, which defines a main axis and a main alignment (A H) of the transport carriage, a fastening device for at least one workpiece and a connecting device, which couples the chassis to the fastening device; and b) a control device, which is designed to control the chassis along the conveying route (S F) depending on position information which is provided by at least one position information transmitter, characterized in that c) in addition to the control device, the transport carriage has a near-field sensor arrangement, which can be coupled to a track control unit, wherein, via position raw information which can be determined by the near-field sensor arrangement, the track control unit can determine a relative position of one or more points of the free-moving transport carriage with regard to one or more position information sources of a near-field movement environment; and d) the main alignment (A H) of the transport carriage and the conveying direction (R F) can be adapted to one another by the track control unit. a) a chassis, which defines a main axis and a main alignment (A H) of the transport carriage, a fastening device for at least one workpiece and a connecting device, which couples the chassis to the fastening device; and b) a control device, which is designed to control the chassis along the conveying route (S F) depending on position information which is provided by at least one position information transmitter, characterized in that c) in addition to the control device, the transport carriage has a near-field sensor arrangement, which can be coupled to a track control unit, wherein, via position raw information which can be determined by the near-field sensor arrangement, the track control unit can determine a relative position of one or more points of the free-moving transport carriage with regard to one or more position information sources of a near-field movement environment; and d) the main alignment (A H) of the transport carriage and the conveying direction (R F) can be adapted to one another by the track control unit.
Method for annealing, at high temperatures, metal bands, sheet metal or wire, in particular grain-oriented electrical strip in the shape of coils in an annealing chamber under protective gas or in a protective gas atmosphere in a hood-type furnace with a hearth with at least one charging area for a batch in the shape of a coil or a coil stack, with at least one protective hood, which covers the batch and under which there is formed the annealing chamber, with a dynamic seal between the protective hood and the hearth and with a heating hood which surrounds the protective hood at a distance and under which there is formed a heating chamber, characterised in that the heating chamber is heated with burners whose open flames are directed into the heating chamber and that in the annealing chamber there is maintained an overpressure relative to the heating chamber of at least 10 Pa and no more than 200 Pa, and that the overpressure between the annealing chamber and the heating chamber is continuously monitored during the annealing process, and that, in the event of a drop of the overpressure, an emergency purge is initiated, depending on the undershooting of a limit value, to purge the annealing chamber under the protective hood and the heating chamber under der heating hood with inert gas.
A graphite member having a bulk density of not less than 1.80 Mg/m 3 and electric resistivity of not more than 9.5 μΩ.m, wherein said graphite member is obtained by kneading coke powder and a binder pitch, pulverizing the kneaded mixture to give a pulverized powder, (b) cold isostatic pressing of the pulverized powder to form a compact, calcining the formed compact at 900 to 1300°C, pitch impregnating and calcining, (d) first graphitizing at not less than 2500°C, (e) pitch impregnating and heat treating, and (f) second graphitizing at 2900 to 3200°C. kneading coke powder and a binder pitch, pulverizing the kneaded mixture to give a pulverized powder, (b) cold isostatic pressing of the pulverized powder to form a compact, calcining the formed compact at 900 to 1300°C, pitch impregnating and calcining, (d) first graphitizing at not less than 2500°C, (e) pitch impregnating and heat treating, and (f) second graphitizing at 2900 to 3200°C.
Agricultural attachment with an attachment device which is suitable for coupling the agricultural attachment to a coupler of an agricultural vehicle, with first holders which are suitable for directly coupling the attachment to links (14, 15) of a coupler, embodied as a three-point coupler, of the vehicle, with a second holder which has a frame made from struts which span a V-shaped or triangular contour for a quick-coupling frame of the vehicle, and which holder is suitable for indirectly coupling the attachment to the links (14, 15) of the coupler, embodied as a three-point coupler, of the vehicle, namely via a quick-coupling frame, which is mounted on the links (14, 15), of the agricultural vehicle, wherein the first holders are designed as tab-like protrusions on the struts of the second holder, characterized in that the first holders protrude in relation to the second holder in the direction of the vehicle, as seen in the direction of travel. with first holders which are suitable for directly coupling the attachment to links (14, 15) of a coupler, embodied as a three-point coupler, of the vehicle, with a second holder which has a frame made from struts which span a V-shaped or triangular contour for a quick-coupling frame of the vehicle, and which holder is suitable for indirectly coupling the attachment to the links (14, 15) of the coupler, embodied as a three-point coupler, of the vehicle, namely via a quick-coupling frame, which is mounted on the links (14, 15), of the agricultural vehicle, wherein the first holders are designed as tab-like protrusions on the struts of the second holder, characterized in that the first holders protrude in relation to the second holder in the direction of the vehicle, as seen in the direction of travel.
A method comprising: receiving, from a sensor of a robot (120, 700, 800), first sensor data indicative of positions of a plurality of markers relative to the sensor within an environment; determining a pose of the sensor within a map of the plurality of markers based on the first sensor data; receiving, from the sensor, second sensor data indicative of distance from the sensor to a surface within the environment; determining, using a coordinate frame of the map of the plurality of markers, an occupancy grid map representing the surface within the environment based on the second sensor data and the pose of the sensor determined based on the first sensor data; determining a transformation that aligns the coordinate frame of the map of the plurality of markers and a coordinate frame of a design model (e.g. a CAD model) of the environment by minimizing an error between occupied cells in the occupancy grid map and sampled points from the design model, wherein the design model specifies positions of physical features within the environment; and providing the transformation between the map of the plurality of markers and the design model for use when causing the robot to navigate through the environment. receiving, from a sensor of a robot (120, 700, 800), first sensor data indicative of positions of a plurality of markers relative to the sensor within an environment; determining a pose of the sensor within a map of the plurality of markers based on the first sensor data; receiving, from the sensor, second sensor data indicative of distance from the sensor to a surface within the environment; determining, using a coordinate frame of the map of the plurality of markers, an occupancy grid map representing the surface within the environment based on the second sensor data and the pose of the sensor determined based on the first sensor data; determining a transformation that aligns the coordinate frame of the map of the plurality of markers and a coordinate frame of a design model (e.g. a CAD model) of the environment by minimizing an error between occupied cells in the occupancy grid map and sampled points from the design model, wherein the design model specifies positions of physical features within the environment; and providing the transformation between the map of the plurality of markers and the design model for use when causing the robot to navigate through the environment.
A centralizing device for an elongated body which is in a mousehole machine, the centralizing device being at the upper portion of the mousehole machine, characterized in that the centralizing device is supportable and rotatable around a mainly horizontal axis of rotation extending through the opening of the mousehole machine, and that the centralizing device comprises two centralizing bows located on radially opposite sides of the axis of rotation.
A sealing assembly for sealing a connector, the sealing assembly comprising: a sealing core having an inserting face provided with an inserting hole adapted to receive a contact; and a first outer layer arranged on the inserting face of the sealing core and including at least one protecting element arranged so as to correspond to and at least partially surround the inserting hole, characterized in that the protecting element has an outer face adapted to abut the contact and facing outwardly from the sealing assembly, and an inner face adapted to contact with a lip profile defined by the inserting hole on the inserting face, wherein the protecting element is further adapted to be disposed between the lip profile and an edge of the contact and to move inwardly towards the sealing core during insertion of the contact into the sealing core such as to protect the lip profile from the edge of the contact. a sealing core having an inserting face provided with an inserting hole adapted to receive a contact; and a first outer layer arranged on the inserting face of the sealing core and including at least one protecting element arranged so as to correspond to and at least partially surround the inserting hole, characterized in that the protecting element has an outer face adapted to abut the contact and facing outwardly from the sealing assembly, and an inner face adapted to contact with a lip profile defined by the inserting hole on the inserting face, wherein the protecting element is further adapted to be disposed between the lip profile and an edge of the contact and to move inwardly towards the sealing core during insertion of the contact into the sealing core such as to protect the lip profile from the edge of the contact.
Dispense head to be connected to a valve of a container for fluids, in particular liquids, such as beer or water, which dispense head comprises a housing and a probe comprising a through-bore, characterized in that the distal end of the probe, i.e. the end facing away from a person operating the dispense head and, once connected to a container, facing towards the container, is detachable from the rest of the probe and the distal end is connected to a flexible hose disposed within the through-bore.
Power tool, in particular a circular cross-cut and/or mitre saw, comprising at least one swivel arm, comprising at least one drive unit arranged on the swivel arm, comprising at least two energy storage units (16, 18), in particular battery packs, that can be electrically connected in series, for supplying energy to the drive unit, and comprising at least two coupling units (20, 22) for fastening the energy storage units (16, 18) to the swivel arm, wherein the coupling units (20, 22) are arranged on the swivel arm, offset from one another as viewed along a longitudinal axis of the swivel arm, wherein the longitudinal axis of the swivel arm is at least substantially parallel to coupling surfaces (26, 28), in particular planes of main extent, of the coupling units (20, 22), characterized by at least one workpiece support surface for receiving at least one workpiece, wherein the energy storage units (16, 18) can be coupled to the coupling units (20, 22), in particular can be inserted into the coupling units (20, 22), in a direction from the workpiece support surface toward the swivel arm.
A semiconductor device (30, 40, 50), comprising: an n-type cladding layer; an n-type waveguide layer formed adjacent to the n-type cladding layer; a delta doped active region formed adjacent to the n-type waveguide layer; a p-type waveguide layer formed adjacent to the delta doped active region; and a p-type cladding layer formed adjacent to the p-type waveguide layer; wherein the device (30, 40, 50) is doped in such a way that at least one of a p-type dopant concentration across the delta doped active region increases from a minimum concentration at a first position to a maximum concentration at a second position and an n-type dopant concentration across the delta doped active region decreases from a maximum concentration at a third position to a minimum concentration at a fourth position, characterized in that the first position is within the n-type waveguide layer or within the n-type cladding layer and the second position is within the p-type waveguide layer or within the p-type cladding layer, and the third position is within the n-type waveguide layer or within the n-type cladding layer and the fourth position is within the p-type waveguide layer or within the p-type cladding layer. an n-type cladding layer; an n-type waveguide layer formed adjacent to the n-type cladding layer; a delta doped active region formed adjacent to the n-type waveguide layer; a p-type waveguide layer formed adjacent to the delta doped active region; and a p-type cladding layer formed adjacent to the p-type waveguide layer; wherein the device (30, 40, 50) is doped in such a way that at least one of a p-type dopant concentration across the delta doped active region increases from a minimum concentration at a first position to a maximum concentration at a second position and an n-type dopant concentration across the delta doped active region decreases from a maximum concentration at a third position to a minimum concentration at a fourth position, wherein the device (30, 40, 50) is doped in such a way that at least one of a p-type dopant concentration across the delta doped active region increases from a minimum concentration at a first position to a maximum concentration at a second position and an n-type dopant concentration across the delta doped active region decreases from a maximum concentration at a third position to a minimum concentration at a fourth position, characterized in that the first position is within the n-type waveguide layer or within the n-type cladding layer and the second position is within the p-type waveguide layer or within the p-type cladding layer, and the third position is within the n-type waveguide layer or within the n-type cladding layer and the fourth position is within the p-type waveguide layer or within the p-type cladding layer.
A method for controlling and operating a production cell including at least a portion of the peripheral equipment associated with it, wherein machine sequences based on machine control components that are part of a domain model are established, administered and executed by means of a domain language, characterized in that a machine control component as part of the domain model is newly established or altered, with the steps: - selecting a machine control component from a number of predetermined component types, - assigning a permissible technology from a number of technologies for the respective component type, wherein for each technology of a component type a logic is stored, which comprises the connection interfaces required for the respective technology and defines them for the machine control component, - allocating the connection interfaces of the generated machine control component to suitable hardware inputs and outputs of existing connections of the production cell. - selecting a machine control component from a number of predetermined component types, - assigning a permissible technology from a number of technologies for the respective component type, wherein for each technology of a component type a logic is stored, which comprises the connection interfaces required for the respective technology and defines them for the machine control component, - allocating the connection interfaces of the generated machine control component to suitable hardware inputs and outputs of existing connections of the production cell.
An air vehicle comprising: an airframe; and a solar panel carried by the airframe and defining an exterior surface thereof, wherein the solar panel comprises a plurality of ridged structures extending in a streamwise direction, and wherein the ridged structures are arranged such that a majority of air flow over the exterior surface flows in the streamwise direction, wherein the airframe comprises a wing, and wherein the solar panel defines the exterior surface of an upper portion of the wing proximate a trailing edge of the wing; and wherein the solar panels that define a portion of the wings extend from the trailing edge of an airfoil in a lengthwise direction as defined by a chordline of the airfoil to a medial portion of the airfoil so as to cover up to about 40% to 50% of exterior surface of the upper portion of the wings. an airframe; and a solar panel carried by the airframe and defining an exterior surface thereof, wherein the solar panel comprises a plurality of ridged structures extending in a streamwise direction, and wherein the ridged structures are arranged such that a majority of air flow over the exterior surface flows in the streamwise direction, wherein the airframe comprises a wing, and wherein the solar panel defines the exterior surface of an upper portion of the wing proximate a trailing edge of the wing; and wherein the solar panels that define a portion of the wings extend from the trailing edge of an airfoil in a lengthwise direction as defined by a chordline of the airfoil to a medial portion of the airfoil so as to cover up to about 40% to 50% of exterior surface of the upper portion of the wings.
A sample cartridge holding apparatus comprising: a body having a housing part into which a sample cartridge having a sample stand and an inclining mechanism is inserted; and a contact portion that is a portion fixed on the body, and that is arranged to contact a lever, provided on the inclining mechanism, during insertion of the sample cartridge into the housing part, to thereby cause a motion of the lever, wherein the inclining mechanism is arranged to convert the motion of the lever into an inclining motion of the sample stand, and wherein the sample cartridge holding apparatus and the sample cartridge are arranged so that in an attached state in which the insertion of the sample cartridge into the housing part is completed, an inclination angle of the sample stand in the sample cartridge is set to a predetermined angle with respect to a central axis of the sample cartridge. a body having a housing part into which a sample cartridge having a sample stand and an inclining mechanism is inserted; and a contact portion that is a portion fixed on the body, and that is arranged to contact a lever, provided on the inclining mechanism, during insertion of the sample cartridge into the housing part, to thereby cause a motion of the lever, wherein the inclining mechanism is arranged to convert the motion of the lever into an inclining motion of the sample stand, and wherein the sample cartridge holding apparatus and the sample cartridge are arranged so that in an attached state in which the insertion of the sample cartridge into the housing part is completed, an inclination angle of the sample stand in the sample cartridge is set to a predetermined angle with respect to a central axis of the sample cartridge.
A method for facilitating Multimedia Broadcast Multicast Service, MBMS, discovery in a wireless communications system, WCS, the method comprising: transmitting a data element configured for a mobile entity (120; 120r; 120X) within a WCS area, the data element including service identifiers mapped to corresponding cell identifiers to indicate respective MBMS services (3102a; 3102b) to be broadcast in the WCS area on adjacent cells (2918a-b) identified by respective ones of the cell identifiers; providing a service area index to the mobile entity (120; 120r; 120x), indicating MBMS service areas supported by at least one of a cell (102a-c; 502, 504, 506) serving the mobile entity (120; 120r; 120X) or a neighbor cell (102a-c; 502, 504, 506), wherein a MBMS service area is a group of cells where a certain MBMS service is available and the service area index is a a hash of the MBMS SAIs for available MBMS service areas served by the at least one of a cell (102a-c, 502, 504, 506); and broadcasting the MBMS services (3102a; 3102b) within the WCS area using the adjacent cells (2918a-b) previously indicated in the data element. transmitting a data element configured for a mobile entity (120; 120r; 120X) within a WCS area, the data element including service identifiers mapped to corresponding cell identifiers to indicate respective MBMS services (3102a; 3102b) to be broadcast in the WCS area on adjacent cells (2918a-b) identified by respective ones of the cell identifiers; providing a service area index to the mobile entity (120; 120r; 120x), indicating MBMS service areas supported by at least one of a cell (102a-c; 502, 504, 506) serving the mobile entity (120; 120r; 120X) or a neighbor cell (102a-c; 502, 504, 506), wherein a MBMS service area is a group of cells where a certain MBMS service is available and the service area index is a a hash of the MBMS SAIs for available MBMS service areas served by the at least one of a cell (102a-c, 502, 504, 506); and broadcasting the MBMS services (3102a; 3102b) within the WCS area using the adjacent cells (2918a-b) previously indicated in the data element.