mhurhangee/ep-ind-claims huggingface dataset:
A method for recognizing an object in Virtual Reality, VR, communication, comprising: acquiring action direction information of an action performed by a user, which represents an indicated direction; determining a target scene object corresponding to the indicated direction according to the action direction information and scene position information which represents positions of respective scene objects in a VR scene where the user is located; and recognizing a speech of the user as a speech of the user to the target scene object; and after recognizing the speech of the user as the speech of the user to the target scene object: sending the speech of the user to VR equipment corresponding to the target scene object; wherein acquiring the action direction information of the action performed by the user comprises: obtaining the indicated direction of the speech of the user according to an angle of an eyeball of the user during the speech, wherein obtaining the indicated direction of the speech of the user according to the angle of the eyeball of the user during the speech comprises: if a proportion of a time period for which the angle of the eyeball of the user is fixed during the speech to a total time period of the speech reaches a preset proportion threshold value, determining a direction of a line of sight corresponding to the angle of the eyeball as the indicated direction of the speech of the user. acquiring action direction information of an action performed by a user, which represents an indicated direction; determining a target scene object corresponding to the indicated direction according to the action direction information and scene position information which represents positions of respective scene objects in a VR scene where the user is located; and recognizing a speech of the user as a speech of the user to the target scene object; and after recognizing the speech of the user as the speech of the user to the target scene object: sending the speech of the user to VR equipment corresponding to the target scene object; wherein acquiring the action direction information of the action performed by the user comprises: obtaining the indicated direction of the speech of the user according to an angle of an eyeball of the user during the speech, wherein obtaining the indicated direction of the speech of the user according to the angle of the eyeball of the user during the speech comprises: if a proportion of a time period for which the angle of the eyeball of the user is fixed during the speech to a total time period of the speech reaches a preset proportion threshold value, determining a direction of a line of sight corresponding to the angle of the eyeball as the indicated direction of the speech of the user.
Spheroidal alumina particles comprising a nitrogen adsorption isotherm volume, referred to as V meso, which is representative of the mesopore volume, of between 0.65 and 0.85 mL/g and a sub-7 μm diameter pore volume, referred to as V meso+macro, measured by mercury porosimetry, of between 0.65 and 0.85 mL/g, and for which the ratio Q = [ (V meso+macro -V meso) / (V meso+macro)] is less than 10%, said particles comprising a mean diameter of between 1.2 and 3 mm, a BET specific surface area of between 150 and 300 m 2 /g and a tapped packing density value of between 0.5 and 0.6 g/ml.
Sealing assembly for a frameless sliding window in a motor vehicle body, the sealing assembly comprising an upper, first portion (201 attachable to the vehicle body along an upper section of an opening for at least one window in the vehicle body; and at least one further, second portion (223, 224) extending between the upper section and a lower section of the opening, when the sealing assembly is mounted in the vehicle; wherein the first portion has a U-shaped cross-section comprising at least one sealing lip (211, 212, 213, 214) and a recess for receiving an upper part of the window, characterized in that the first portion comprises a rigid and undeformable guiding means arranged to contact the outer surface of the window, and that the guiding means is arranged to guide and displace the window in a transverse direction towards the interior of the vehicle during a closing operation of the window, wherein at least a rear edge (221, 222) of the window is arranged to be forced into contact with the second portion (223,224), when the sealing assembly is mounted in the vehicle.
An organic electroluminescence element, comprising electrodes (1, 2), a light emitting layer, a hole transport layer for transporting holes to the light emitting layer and an electron transport layer for transporting electrons to the light emitting layer, said light emitting layer, said hole transport layer and said electron transport layer being formed between the electrodes (1, 2), wherein the electrodes (1, 2) comprise an anode and a cathode, wherein the light emitting layer contains a compound functioning as electron accepting dopant, wherein the light emitting layer comprises a first region at the anode side and a second region at the cathode side, wherein the second region contains an organic light emitting compound and a compound functioning as light emitting dopant, characterized in that the first region contains an organic light emittingcompound and the compound functioning as electron accepting dopant.
A method of analyzing an incoming telephonic event during an active operative state of a vehicle, the method comprising: activating, by the mobile device and responsive to receiving information indicating an active operative state of the vehicle, an incoming telephonic event analysis application operating on the mobile device; receiving, by the mobile device, an incoming telephonic event at a mobile device associated with a driver of a vehicle; responsive to receiving the incoming telephonic event and based on the active operative state of the vehicle, applying, by the incoming telephonic event analysis application, a soft block to the incoming telephonic event; determining, by the incoming telephonic event analysis application, whether a velocity of the vehicle at a time of receipt of the incoming telephonic event is less than a predetermined velocity threshold; determining, by the incoming telephonic event analysis application, whether the incoming telephonic event is associated with an allowable individual or entity; determining, by the incoming telephonic event analysis application, whether the incoming telephonic event is a first, second, or third incoming telephonic event; and removing, by the incoming telephonic event analysis application and based on at least one of the velocity of the vehicle at the time of receipt of the incoming telephonic event being less than the predetermined velocity threshold, the incoming telephonic event being associated with the allowable individual or entity, and the incoming telephonic event being the third incoming telephonic event, the soft block on the incoming telephonic event. activating, by the mobile device and responsive to receiving information indicating an active operative state of the vehicle, an incoming telephonic event analysis application operating on the mobile device; receiving, by the mobile device, an incoming telephonic event at a mobile device associated with a driver of a vehicle; responsive to receiving the incoming telephonic event and based on the active operative state of the vehicle, applying, by the incoming telephonic event analysis application, a soft block to the incoming telephonic event; determining, by the incoming telephonic event analysis application, whether a velocity of the vehicle at a time of receipt of the incoming telephonic event is less than a predetermined velocity threshold; determining, by the incoming telephonic event analysis application, whether the incoming telephonic event is associated with an allowable individual or entity; determining, by the incoming telephonic event analysis application, whether the incoming telephonic event is a first, second, or third incoming telephonic event; and removing, by the incoming telephonic event analysis application and based on at least one of the velocity of the vehicle at the time of receipt of the incoming telephonic event being less than the predetermined velocity threshold, the incoming telephonic event being associated with the allowable individual or entity, and the incoming telephonic event being the third incoming telephonic event, the soft block on the incoming telephonic event.
A tissue extraction device (100, 500) for being introduced into an incision to an intracorporeal region and for capturing and morcellating a target tissue of the intracorporeal region, the device comprising: a non-permeable outer bag, the outer bag having a mouth; an inner bag lining the outer bag; a set of wire segments placed between the inner bag and the outer bag, the wire segments having ends that are disposed near the mouth; wherein the outer bag is tightenable around the target tissue by pulling the mouth out of the incision to a tightened configuration, and in the tightened configuration, the ends are motionable to cause the wire segments to pass through the inner bag to begin morcellating the target tissue, characterized in that each wire segment of the set of wire segments is arranged to be separately removable from their placement between the bags (102, 104). a non-permeable outer bag, the outer bag having a mouth; an inner bag lining the outer bag; a set of wire segments placed between the inner bag and the outer bag, the wire segments having ends that are disposed near the mouth; wherein the outer bag is tightenable around the target tissue by pulling the mouth out of the incision to a tightened configuration, and in the tightened configuration, the ends are motionable to cause the wire segments to pass through the inner bag to begin morcellating the target tissue, characterized in that each wire segment of the set of wire segments is arranged to be separately removable from their placement between the bags (102, 104).
An article of footwear (10f; 10g) comprising: an upper (100f; 100g) defining an interior void (102f; 102g); a first cable portion (502f; 502g) movable in a first tightening direction to move the upper (100f; 100g) into a tightened state and movable in a first loosening direction to move the upper (100f; 100g) into a loosened state; a second cable portion (302f; 302g) movable in a second tightening direction to move first cable portion (502f; 502g) in the first tightening direction and movable in a second loosening direction when the first cable portion (502f; 502g) is moved in the first loosening direction; and a cable lock operable in a locked state to restrict movement of the first cable portion (502f; 502g) in the first loosening direction and the second cable portion (302f; 302g) in the second loosening direction and operable in an unlocked state to permit movement of the first cable portion (502f; 502g) in the first loosening direction and the second cable portion (302f; 302g) in the second loosening direction, characterized in that: the second cable portion (302f; 302) is a continuous loop extending from the cable lock around a tongue portion. an upper (100f; 100g) defining an interior void (102f; 102g); a first cable portion (502f; 502g) movable in a first tightening direction to move the upper (100f; 100g) into a tightened state and movable in a first loosening direction to move the upper (100f; 100g) into a loosened state; a second cable portion (302f; 302g) movable in a second tightening direction to move first cable portion (502f; 502g) in the first tightening direction and movable in a second loosening direction when the first cable portion (502f; 502g) is moved in the first loosening direction; and a cable lock operable in a locked state to restrict movement of the first cable portion (502f; 502g) in the first loosening direction and the second cable portion (302f; 302g) in the second loosening direction and operable in an unlocked state to permit movement of the first cable portion (502f; 502g) in the first loosening direction and the second cable portion (302f; 302g) in the second loosening direction, characterized in that: the second cable portion (302f; 302) is a continuous loop extending from the cable lock around a tongue portion.
A cloud agent (32, 34; 60) for monitoring an industrial facility (12, 14, 50), the industrial facility including one or more industrial devices (16, 18, 20, 22, 24, 26), the cloud agent being a system application located at the industrial facility, wherein the cloud agent utilizes a remote cloud platform to process data using cloud services to facilitate remote monitoring of the industrial devices, the cloud agent being configured to: collect data indicative of a past and/or a present state of the industrial devices according to a manifest (42, 44) specific to the industrial facility, the cloud agent comprising the manifest, wherein the manifest identifies which data to collect from the respective industrial devices, wherein the manifest identifies the send frequency for different types of data and/or industrial devices, wherein the manifest identifies priorities for sending different types of data, and wherein the manifest identifies how the sent data is processed by the remote cloud platform; send the collected data to the remote cloud platform according to the manifest, the collected data sent to corresponding one or more queues (76; 78, 80, 82, 84) of the remote cloud platform based on data type, wherein the one or more queues of the remote cloud platform comprise an alarms queue related to abnormal situations, wherein the alarms queue comprises multiple queues associated with different priorities to allow for different alarms having different levels of criticality; and dynamically reconfigure the cloud agent without interrupting the collecting and the sending, wherein the reconfiguration is made through a modification of the manifest during runtime, based on commands received remotely through the remote cloud platform. collect data indicative of a past and/or a present state of the industrial devices according to a manifest (42, 44) specific to the industrial facility, the cloud agent comprising the manifest, wherein the manifest identifies which data to collect from the respective industrial devices, wherein the manifest identifies the send frequency for different types of data and/or industrial devices, wherein the manifest identifies priorities for sending different types of data, and wherein the manifest identifies how the sent data is processed by the remote cloud platform; send the collected data to the remote cloud platform according to the manifest, the collected data sent to corresponding one or more queues (76; 78, 80, 82, 84) of the remote cloud platform based on data type, wherein the one or more queues of the remote cloud platform comprise an alarms queue related to abnormal situations, wherein the alarms queue comprises multiple queues associated with different priorities to allow for different alarms having different levels of criticality; and dynamically reconfigure the cloud agent without interrupting the collecting and the sending, wherein the reconfiguration is made through a modification of the manifest during runtime, based on commands received remotely through the remote cloud platform.
A packaging container (1, 101, 201) comprising a container body (2, 201, 202) having a bottom end (4, 104, 204) and a top end (5, 105, 205), said container body (2, 102, 202) comprising a tubular container wall (3, 103, 203) extending in a height direction of said packaging container (1, 101, 201) from said bottom end (4, 104, 204) to said top end (5, 105, 205) and having an inner surface (7, 107, 207) facing towards an interior of said container body (2, 102, 202) and an outer surface (8, 108, 208) facing away from said interior of said container body (2, 102, 202), said packaging container (1, 101, 201) being closed at said bottom end (4, 104, 204) by a base disc (9, 109, 209) which is attached by welding to said inner surface (7, 107, 207) of said container body (2, 102, 202) at said bottom end (4, 104, 204) of said container body (2, 102, 202), said packaging container comprising a top end closure comprising an openable and reclosable lid (16, 116, 216), said container body (2, 102, 202) comprising a laminate body sheet material comprising a carton layer, a metallic foil layer, a polymeric bonding layer being arranged between said carton layer and said metallic foil layer, and a thermoplastic welding layer being arranged on said inner surface (7, 107, 207) of said container body (2, 102, 202), with said metallic foil layer being arranged between said carton layer and said inner thermoplastic welding layer, said base disc (9, 109, 209) comprising a laminate base sheet material comprising a carton layer and an inner thermoplastic welding layer being arranged on a surface of said base disc (9, 109, 209) which is facing towards said interior of said container body (2, 102, 202), characterized in that said inner thermoplastic welding layer of said laminate body sheet material has a basis weight of from 12 g/m 2 to 75 g/m 2, such as from, 20 g/m 2 to 70 g/m 2, such as from 35 g/m 2 to 65 g/m 2, such as from 40 g/m 2 to 60 g/m 2, such as from 45 g/m 2 to 55 g/m 2 and a combined basis weight of said thermoplastic welding layer of said laminate body sheet material and said thermoplastic welding layer of said base sheet material is from 50 g/m 2 to 160 g/m 2, such as from 70 g/m 2 to 150 g/m 2 such as from 80 g/m 2 to 140 g/m 2, or from 90 g/m 2 to 130 g/m 2.
A pneumatic brake system configured to actuate a brake by supplying air to a brake mechanism provided on each wheel (51, 52) of a vehicle and to release the brake by discharging air from the brake mechanism, the pneumatic brake system comprising, for each brake mechanism: a safety air supplier which is actuated by a safety brake control device in an emergency to supply air to the brake mechanism; and a shuttle valve, characterized in that said shuttle valve is connected to the safety air supplier and to a brake air supply circuit for supplying air to the brake mechanism during normal time by way of a route that is different from the safety air supplier, wherein the shuttle valve allows a flow of air only in a direction toward the brake mechanism from one of the safety air supplier and the brake air supply circuit that has higher pressure. a safety air supplier which is actuated by a safety brake control device in an emergency to supply air to the brake mechanism; and a shuttle valve,
Use of an optical waveguide in a method for optically measuring the temperature of a high-temperature melt, in which the optical waveguide guides electromagnetic waves from a measuring point to an optical detector and is moved to the measuring point with the help of a fluid through a conduit through which the fluid flows, wherein the optical waveguide used has a core, a casing and a coating, wherein the coating comprises a protective layer and an outer protective sheath, characterized in that the outer protective sheath is firmly connected to the protective layer, wherein relative movement between the protective layer and the outer protective sheath is blocked.
A method of manufacturing a power electronic module by additive manufacturing, comprising the steps of: - depositing in a single step, by electrodeposition, a layer of electrically conductive nanoporous material directly on a substrate (2a, 2b) comprising an electrically insulating layer and at least one layer of conductive metal material (2d, 2e), called a metallized substrate (2a, 2b) - placing an element, for example an active component of the semiconductor power component type, on the layer of nanoporous material and sintering the layer of nanoporous material, so as to ensure a mechanical and electrical connection between said element and the metallized substrate (2a, 2b), characterized in that it comprises the steps of: - making or fixing preforms of polymer material on at least one face of the metallized substrate (2a, 2b), - depositing a first metal layer on the preform, - depositing a second metal layer on the first metal layer by electroforming. - depositing in a single step, by electrodeposition, a layer of electrically conductive nanoporous material directly on a substrate (2a, 2b) comprising an electrically insulating layer and at least one layer of conductive metal material (2d, 2e), called a metallized substrate (2a, 2b) - placing an element, for example an active component of the semiconductor power component type, on the layer of nanoporous material and sintering the layer of nanoporous material, so as to ensure a mechanical and electrical connection between said element and the metallized substrate (2a, 2b), - making or fixing preforms of polymer material on at least one face of the metallized substrate (2a, 2b), - depositing a first metal layer on the preform, - depositing a second metal layer on the first metal layer by electroforming.
An illumination unit comprising: a hollow member having a through opening; a plurality of illumination sections configured to emit illumination light; and a holding member which is arranged in the through opening, characterized in that the holding member holds the illumination sections to incline the illumination sections at a desired angle with respect an opening surface of the through opening and to form a cascade along the axial direction of the through opening, wherein the holding member holds the illumination sections in such a manner that the illumination sections form a zigzag pattern in a width direction orthogonal to the axial direction of the through opening without facing each other in the width direction, wherein the illumination unit further comprises a reflective member which is configured to reflect the illumination light emitted from the illumination sections toward the opening surface, the reflective member being held by the holding member to face the illumination sections and to externally apply the illumination light emitted from the illumination sections from the inside of the through opening through the opening surface a hollow member having a through opening; a plurality of illumination sections configured to emit illumination light; and a holding member which is arranged in the through opening, characterized in that the holding member holds the illumination sections to incline the illumination sections at a desired angle with respect an opening surface of the through opening and to form a cascade along the axial direction of the through opening, wherein the holding member holds the illumination sections in such a manner that the illumination sections form a zigzag pattern in a width direction orthogonal to the axial direction of the through opening without facing each other in the width direction, wherein the illumination unit further comprises a reflective member which is configured to reflect the illumination light emitted from the illumination sections toward the opening surface, the reflective member being held by the holding member to face the illumination sections and to externally apply the illumination light emitted from the illumination sections from the inside of the through opening through the opening surface