mhurhangee/patent-ind-claim-en huggingface dataset:
A helideck safety net including: a net elongated in a longitudinal direction, the net formed of lengths of line arrayed in the longitudinal direction alongside one another, and fastening means that join adjacent lengths at intervals to form cells of the net, wherein a longitudinal row of cells is formed on longitudinal edges of the net and the longitudinal edges are joined by at least one end edge, wherein an end row of cells is formed along the at least one end edge, at least one spreader bar adapted to pass through the cells of one of the end rows, and an edge line adapted to secure the net inside a perimeter frame by being wound generally helically in loops around the perimeter frame, each loop passing through a cell of the longitudinal rows, and through a cell of the end rows and simultaneously inside the at least one spreader bar to secure the spreader bar to the perimeter frame, wherein the at least one spreader bar includes an array of openings through which the edge line can be threaded to fix the ends of the edge line. a net elongated in a longitudinal direction, the net formed of lengths of line arrayed in the longitudinal direction alongside one another, and fastening means that join adjacent lengths at intervals to form cells of the net, wherein a longitudinal row of cells is formed on longitudinal edges of the net and the longitudinal edges are joined by at least one end edge, wherein an end row of cells is formed along the at least one end edge, at least one spreader bar adapted to pass through the cells of one of the end rows, and an edge line adapted to secure the net inside a perimeter frame by being wound generally helically in loops around the perimeter frame, each loop passing through a cell of the longitudinal rows, and through a cell of the end rows and simultaneously inside the at least one spreader bar to secure the spreader bar to the perimeter frame, wherein the at least one spreader bar includes an array of openings through which the edge line can be threaded to fix the ends of the edge line.
A method of encoding a video captured on a video capture device, comprising: reading orientation data for a first orientation from the video capture device as a video of a scene is being captured when the video capture device is in the first orientation wherein the first orientation has a first resolution; determining that the video capture device is rotated to a second orientation as the video of the scene is being captured, wherein the second orientation has a second resolution; reading orientation data from the video capture device as a video of the scene is being captured when the video capture device is in the second orientation; generating a rotation matrix based on a relationship between the first orientation and the second orientation; adjusting the orientation of frames of the video captured when the video capture device is in the second orientation to match the orientation of the video captured when the video capture device is in the first orientation; cropping the adjusted frames of the video captured when the video capture device is in the second orientation, the cropped frames having the first resolution; and encoding the cropped frames of the captured video. reading orientation data for a first orientation from the video capture device as a video of a scene is being captured when the video capture device is in the first orientation wherein the first orientation has a first resolution; determining that the video capture device is rotated to a second orientation as the video of the scene is being captured, wherein the second orientation has a second resolution; reading orientation data from the video capture device as a video of the scene is being captured when the video capture device is in the second orientation; generating a rotation matrix based on a relationship between the first orientation and the second orientation; adjusting the orientation of frames of the video captured when the video capture device is in the second orientation to match the orientation of the video captured when the video capture device is in the first orientation; cropping the adjusted frames of the video captured when the video capture device is in the second orientation, the cropped frames having the first resolution; and encoding the cropped frames of the captured video.
A method for network-controlled filtering of detected cell reporting, the method comprising: receiving , at a User Equipment, UE, a network-based request to report detectable neighboring cells; receiving , at the UE, cell data associated with one or more neighboring cells; characterized in that the request includes at least mobility filtering criteria and in that the method comprises: determining , at the UE, which of the one or more neighboring cells meets or exceeds the mobility filtering criteria based at least on the cell data; and in response to determining that at least one neighboring cell meets or exceeds the mobility filtering criteria, communicating , to the network, a detected cell report that identifies the at least one neighboring cell that has been determined to meet or exceed the mobility filtering criteria. receiving , at a User Equipment, UE, a network-based request to report detectable neighboring cells; receiving , at the UE, cell data associated with one or more neighboring cells; characterized in that the request includes at least mobility filtering criteria and in that the method comprises: determining , at the UE, which of the one or more neighboring cells meets or exceeds the mobility filtering criteria based at least on the cell data; and in response to determining that at least one neighboring cell meets or exceeds the mobility filtering criteria, communicating , to the network, a detected cell report that identifies the at least one neighboring cell that has been determined to meet or exceed the mobility filtering criteria. determining , at the UE, which of the one or more neighboring cells meets or exceeds the mobility filtering criteria based at least on the cell data; and in response to determining that at least one neighboring cell meets or exceeds the mobility filtering criteria, communicating , to the network, a detected cell report that identifies the at least one neighboring cell that has been determined to meet or exceed the mobility filtering criteria.
A laser welding method comprising: a coupling forming step of forming a T coupling that is obtained by superimposing a side surface of a first member and a lower surface of a second member on each other; and a welding step of irradiating an upper surface of the second member opposite to the lower surface with a laser beam so as to laser-weld the first member and the second member to each other, characterized in that in the welding step, the laser beam is moved in a lateral direction along the side surface of the first member while being weaved, in such manner as to achieve a weaving width in which the center of the spot of the laser beam weaves. a coupling forming step of forming a T coupling that is obtained by superimposing a side surface of a first member and a lower surface of a second member on each other; and a welding step of irradiating an upper surface of the second member opposite to the lower surface with a laser beam so as to laser-weld the first member and the second member to each other, characterized in that in the welding step, the laser beam is moved in a lateral direction along the side surface of the first member while being weaved, in such manner as to achieve a weaving width in which the center of the spot of the laser beam weaves.
Catalytically active material, comprising grains of non-graphitizing carbon with iron nanoparticles dispersed therein, wherein d p , the average diameter of iron nanoparticles in the non-graphitizing carbon grains, is in the range of 1 nm to 20 nm, D, the average distance between iron nanoparticles in the non-graphitizing carbon grains, is in the range of 2 nm to 150 nm, and ω, the combined total mass fraction of metal in the non-graphitizing carbon grains, is in the range of 30 wt% to 70 wt% of the total mass of the non-graphitizing carbon grains, wherein d p and D are measured by TGZ-TEM as described herein, and wherein d p , D and ω conform to the following relation: 4.5 d p / ω > D ≥ 0.25 d p / ω . d p , the average diameter of iron nanoparticles in the non-graphitizing carbon grains, is in the range of 1 nm to 20 nm, D, the average distance between iron nanoparticles in the non-graphitizing carbon grains, is in the range of 2 nm to 150 nm, and ω, the combined total mass fraction of metal in the non-graphitizing carbon grains, is in the range of 30 wt% to 70 wt% of the total mass of the non-graphitizing carbon grains, wherein d p and D are measured by TGZ-TEM as described herein, and wherein d p , D and ω conform to the following relation: 4.5 d p / ω > D ≥ 0.25 d p / ω .
An aerodynamic body for use on an aircraft , wherein the aerodynamic body includes a skin having at least a first perforated surface portion , and the aerodynamic body further includes an ice-protection system , wherein the ice-protection system includes an actuatable element , wherein the actuatable element includes an electrical heating element and is movable or deformable between a first position and a second position, wherein in the first position a section of the actuatable element is thermally coupled to the first perforated surface portion and configured to close at least one of the perforations from within the aerodynamic body by preventing an inflow or outflow between a boundary layer of an outer aerodynamic airflow and the aerodynamic body through the at least one perforation, wherein in the second position the section of the actuatable element is distanced from the first perforated surface portion and configured to allow the said inflow or outflow. wherein the ice-protection system includes an actuatable element , wherein the actuatable element includes an electrical heating element and is movable or deformable between a first position and a second position, wherein in the first position a section of the actuatable element is thermally coupled to the first perforated surface portion and configured to close at least one of the perforations from within the aerodynamic body by preventing an inflow or outflow between a boundary layer of an outer aerodynamic airflow and the aerodynamic body through the at least one perforation, wherein in the second position the section of the actuatable element is distanced from the first perforated surface portion and configured to allow the said inflow or outflow.
A glatiramer acetate co-polymer for use in treating, preventing or ameliorating a microbial infection.
A reaction force output device comprising: a drive unit configured to drive a drive member to output a force in a direction opposite to an operating direction to an operated element operated by an operator; characterized in that it further comprises a control unit configured to determine whether or not a space is formed between the operated element and the drive member , and to control the drive unit to output a greater driving force when it is determined that the space is formed than when it is determined that the space is not formed. a drive unit configured to drive a drive member to output a force in a direction opposite to an operating direction to an operated element operated by an operator; characterized in that it further comprises a control unit configured to determine whether or not a space is formed between the operated element and the drive member , and to control the drive unit to output a greater driving force when it is determined that the space is formed than when it is determined that the space is not formed.
An image forming device , comprising: a placement component configured to accommodate a sheet provided with a wireless tag; a wireless tag communication writer configured to write information to the wireless tag provided on the sheet; and characterized by further comprising a plate-shaped conductor provided in the placement component at a position in which the conductor overlaps with the wireless tag to cover the tr region to which the wireless tag is attached, the conductor being configured to hinder communication between the wireless tag communication writer and the wireless tag. a placement component configured to accommodate a sheet provided with a wireless tag; a wireless tag communication writer configured to write information to the wireless tag provided on the sheet; and characterized by further comprising a plate-shaped conductor provided in the placement component at a position in which the conductor overlaps with the wireless tag to cover the tr region to which the wireless tag is attached, the conductor being configured to hinder communication between the wireless tag communication writer and the wireless tag.
Bipolar plate for a fuel cell having an anode plate and a cathode plate , having in each case one active area (AA) and two inactive areas (IA), wherein in each inactive area (IA) are arranged a supply area (SA) having two main gas ports for the supply and discharge of reaction gases and a coolant main port for the supply and discharge of coolant, and a distribution area (DA) for connecting the two main gas ports and the coolant main port to the active area (AA), wherein the anode plate and the cathode plate are designed such and are arranged above one another such that the anode plate has on the side averted from the cathode plate open anode gas ducts and the cathode plate has on the side averted from the anode plate open cathode gas ducts , and that on the sides , facing one another, of the anode plate and of the cathode plate are formed closed coolant ducts , characterised in that the anode gas ducts and the cathode gas ducts are guided without overlapping out of the main gas ports through the distribution area (DA) and open at opposite sides into the active area (AA), are redirected in the active area (AA) and distributed across the width of the active area (AA), that after the distribution across the width of the active area (AA) there is a redirection in the direction of the respectively opposite distribution area (DA), and that the coolant ducts branch in the distribution area (DA) and after the branching are redirected in the direction of the anode gas ducts and in the direction of the cathode gas ducts and overlap in an overlapping area with the anode gas ducts and the cathode gas ducts and in each case are redirected together such that the coolant ducts , with the anode gas ducts and the cathode gas ducts , open, without overlapping with and alternating with said anode gas ducts and cathode gas ducts, into the active area (AA), and run there in parallel with them through the active area (AA).
A multifunctional support bracket, characterized in comprising: a main body ; a spherical base , arranged on an upper part of the main body , having a spherical concave shape with an upward-facing opening, and provided with a cooperation member for being fixedly connected to a spherical-bottomed ball head ; a flat-bottomed platform , having one side face detachably fixed to the opening of the spherical base through the cooperation member, and having the other side face provided with a connection member for being fixedly connected to a flat-bottomed ball head ; characterized by a plurality of fastening members , provided on the flat-bottomed platform and disposed around the center of the flat-bottomed platform , for abutting against the flat-bottomed ball head , wherein the axis of each of the fastening members intersects the axis of the flat-bottomed platform at a point on the upper side of the flat-bottomed platform . a main body ; a spherical base , arranged on an upper part of the main body , having a spherical concave shape with an upward-facing opening, and provided with a cooperation member for being fixedly connected to a spherical-bottomed ball head ; a flat-bottomed platform , having one side face detachably fixed to the opening of the spherical base through the cooperation member, and having the other side face provided with a connection member for being fixedly connected to a flat-bottomed ball head ; characterized by a plurality of fastening members , provided on the flat-bottomed platform and disposed around the center of the flat-bottomed platform , for abutting against the flat-bottomed ball head , wherein the axis of each of the fastening members intersects the axis of the flat-bottomed platform at a point on the upper side of the flat-bottomed platform .
Procedure for the transfer of data not belonging to a standard operation within an at least partially radio-based building installation system , in which at least one participant is integrated into the building installation system via a radio-based network communication, characterised by the fact that a participant, adressed by an administration device via a radio link of the building installation system , as terminal device , after having received a special operation command, if not connected to the network communication via the radio link, sends a telegram with information on the special operation, whereupon the transmission device or devices receiving this telegram and involved in the radio transmission to the at least one terminal device , such as repeaters, media couplers and the like , deactivate their duty cycle monitoring, and, if connected to the network communication via radio, this terminal device in addition deactivates its duty cycle monitoring, so that a transmission of even larger amounts of data to this at least one terminal device can take place without interruption on the radio link.
A method for pairing a control unit with a second device wherein: the control unit broadcasts a short-range signal , and the second device receives the short-range signal, wherein the said short range signal encodes a security code; the control unit and the second device send a connection request to a server , each of the connection requests from the control unit and from the second device, including the security code or a derived sequence of the security code, characterized in that the server compares the connection request of the control unit with the connection request of the second device , and tests whether the request of the control unit contains the same security code or derived sequences derived from the same security code than the security code received from the second device , and in that the server pairs the control unit with the second device, generates a secure key and transmits the secure key to the control unit and to the second device if the test of the security code or derivative of the security code succeeds. the control unit broadcasts a short-range signal , and the second device receives the short-range signal, wherein the said short range signal encodes a security code; the control unit and the second device send a connection request to a server , each of the connection requests from the control unit and from the second device, including the security code or a derived sequence of the security code, characterized in that the server compares the connection request of the control unit with the connection request of the second device , and tests whether the request of the control unit contains the same security code or derived sequences derived from the same security code than the security code received from the second device , and in that the server pairs the control unit with the second device, generates a secure key and transmits the secure key to the control unit and to the second device if the test of the security code or derivative of the security code succeeds.
A cooling system for a combustion engine and a WHR-system , wherein the cooling system comprises a first circuit (A) with a circulating coolant configured to cool the combustion engine , wherein the first circuit (A) comprises a first radiator , a first radiator bypass line configured to direct coolant past the first radiator and a first valve device configured to distribute the coolant flow from the combustion engine between the first radiator and the first radiator bypass line , and a second circuit (B) with a circulating coolant configured to cool a condenser in the WHR system, wherein the second circuit comprises a second radiator , a first inlet opening (B 1i ) at which the second circuit (B) receives coolant from a first position in an engine outlet line of the first circuit (A), a condenser inlet line configured to direct coolant to the condenser , an outlet opening (B o ) at which the coolant is directed back to the first circuit (A), a second radiator bypass line directing coolant past the second radiator , and a second valve device configured to distribute the coolant between the second radiator and the second radiator bypass line such that a coolant mixture is received in the condenser inlet line which is able to cool the working medium in the condenser to a desired condensation temperature, characterized in that the second circuit (B) comprises a second inlet opening (B 2i ) at which the second circuit (B) receives coolant from a second position of the first circuit (A), wherein (a) the cooling system comprises a valve member configured to control the coolant flow through the second inlet opening (B 2i ) to the second circuit (B), or (b) the first inlet opening (B 1i ) is configured to direct coolant to the second radiator bypass line and the second inlet opening (B 2i ) is configured to direct coolant to the second radiator . (a) the cooling system comprises a valve member configured to control the coolant flow through the second inlet opening (B 2i ) to the second circuit (B), or (b) the first inlet opening (B 1i ) is configured to direct coolant to the second radiator bypass line and the second inlet opening (B 2i ) is configured to direct coolant to the second radiator .