mhurhangee/patent-ind-claim-en huggingface dataset:
A system for optically scanning a region comprising a sample on a conveyor belt of which a chemical composition is to be determined, comprising: a pulsed laser source for emitting a pulsed laser beam comprising a plurality of temporally ordered laser pulses; a focusing device for adjusting the position of the waist of the pulsed laser beam to a given position along the optical path of the pulsed laser beam; a beam deflector for adjusting a propagation direction of the pulsed laser beam to a desired scan direction; a controller being in communication with the focusing device and the beam deflector, the controller for varying, via the beam deflector, the propagation direction of the pulsed laser beam according to a predefined beam path and varying, via the focusing device, the given position of the waist of the pulsed laser beam along the optical path of the pulsed laser beam; and a photodetector for detecting light emitted by a plasma created when a given one of the laser pulses has an irradiance at a surface of a sample located on the optical path is greater than a breakdown threshold, the detected light being indicative of the chemical composition of the sample, wherein the system is adapted to scan a sample present on a conveyor belt , wherein the controller is adapted to choose the speed of variation of the propagation direction of the pulsed laser beam to be much greater than the speed of the conveyor belt and the speed of variation of a focal plane position of the focusing device to be much greater than the speed of variation of the propagation direction of the pulsed laser beam. a pulsed laser source for emitting a pulsed laser beam comprising a plurality of temporally ordered laser pulses; a focusing device for adjusting the position of the waist of the pulsed laser beam to a given position along the optical path of the pulsed laser beam; a beam deflector for adjusting a propagation direction of the pulsed laser beam to a desired scan direction; a controller being in communication with the focusing device and the beam deflector, the controller for varying, via the beam deflector, the propagation direction of the pulsed laser beam according to a predefined beam path and varying, via the focusing device, the given position of the waist of the pulsed laser beam along the optical path of the pulsed laser beam; and a photodetector for detecting light emitted by a plasma created when a given one of the laser pulses has an irradiance at a surface of a sample located on the optical path is greater than a breakdown threshold, the detected light being indicative of the chemical composition of the sample, wherein the system is adapted to scan a sample present on a conveyor belt , wherein the controller is adapted to choose the speed of variation of the propagation direction of the pulsed laser beam to be much greater than the speed of the conveyor belt and the speed of variation of a focal plane position of the focusing device to be much greater than the speed of variation of the propagation direction of the pulsed laser beam.
A multi-level fulfilment centre configured to support distribution of items by unmanned aerial vehicles, UAVs , the multi-level fulfilment centre comprising: an exterior shell to secure an interior of the multi-level fulfilment centre; a receiving area within the exterior shell to receive freight that includes items available for consumption by customers; a storage area within the exterior shell to organize and store the items prior to distribution to customers by the UAVs; UAV platforms located on the exterior shell and configured for at least landing and takeoff of the UAVs, wherein the UAV platforms are moveable along the exterior shell by traversing a grid in a horizontal direction and a vertical direction; a plurality of apertures vertically and horizontally spaced in the exterior shell, to provide at least access to the UAVs located on corresponding UAV platforms located proximate to the plurality of apertures; aperture doors for securing at least one aperture to prevent unauthorized access; and a controller configured to authenticate the UAVs and control the aperture doors, wherein the controller is configured to receive information wirelessly from the UAVs for positively identifying the UAVs, to open an aperture door based at least in part on a positive identification, and move at least one UAV platform of the UAV platforms along the exterior shell by traversing the grid and between the vertically and horizontally spaced plurality of apertures. an exterior shell to secure an interior of the multi-level fulfilment centre; a receiving area within the exterior shell to receive freight that includes items available for consumption by customers; a storage area within the exterior shell to organize and store the items prior to distribution to customers by the UAVs; UAV platforms located on the exterior shell and configured for at least landing and takeoff of the UAVs, wherein the UAV platforms are moveable along the exterior shell by traversing a grid in a horizontal direction and a vertical direction; a plurality of apertures vertically and horizontally spaced in the exterior shell, to provide at least access to the UAVs located on corresponding UAV platforms located proximate to the plurality of apertures; aperture doors for securing at least one aperture to prevent unauthorized access; and a controller configured to authenticate the UAVs and control the aperture doors, wherein the controller is configured to receive information wirelessly from the UAVs for positively identifying the UAVs, to open an aperture door based at least in part on a positive identification, and move at least one UAV platform of the UAV platforms along the exterior shell by traversing the grid and between the vertically and horizontally spaced plurality of apertures.
A synthetic osteoinductive porous calcium phosphate biomaterial comprising a network of interconnected micropores, wherein: the microporosity is from 23% to 60 % by volume, the surface free energy of the biomaterial is from 30 mJ/m 2 to 57 mJ/m 2 , characterized in that the microporosity results from pores measured by mercury intrusion porosimetry analysis to have an interconnection diameter of from 50 nm to 10μm, the mean interconnection diameter, measured by mercury intrusion porosimetry analysis, is 0.5 to 2.0 μm, the biomaterial has a permeability resulting from the microporosity of 0.206 nm 2 or greater, and the biomaterial has a capillary pressure difference in water of 3.7 kPa or more. the microporosity is from 23% to 60 % by volume, the surface free energy of the biomaterial is from 30 mJ/m 2 to 57 mJ/m 2 , characterized in that the microporosity results from pores measured by mercury intrusion porosimetry analysis to have an interconnection diameter of from 50 nm to 10μm, the mean interconnection diameter, measured by mercury intrusion porosimetry analysis, is 0.5 to 2.0 μm, the biomaterial has a permeability resulting from the microporosity of 0.206 nm 2 or greater, and the biomaterial has a capillary pressure difference in water of 3.7 kPa or more.
A method for managing incoming data messages at a mobile device, said method comprising: receiving a data message from a sender; in response to said receiving, determining a velocity of said mobile device; in response to said velocity being greater than a predefined value, analyzing external data measured by at least one component of said mobile device; in response to said external data, indicating said mobile device is in a driving position of a moving vehicle: preventing announcement of said received data message; and autonomously transmitting (906-A) a predetermined response message to said sender. receiving a data message from a sender; in response to said receiving, determining a velocity of said mobile device; in response to said velocity being greater than a predefined value, analyzing external data measured by at least one component of said mobile device; in response to said external data, indicating said mobile device is in a driving position of a moving vehicle: preventing announcement of said received data message; and autonomously transmitting (906-A) a predetermined response message to said sender. preventing announcement of said received data message; and autonomously transmitting (906-A) a predetermined response message to said sender.
Gas cylinder, in particular high-pressure gas cylinder, whose cylinder pipe has a terminal portion and a hollow piston rod in the form of a rod-like pipe, which is surrounded by an annular space and which is guided through a sealing arrangement which seals the gas pressure which is applied in the gas pressure chamber of the cylinder pipe against the ambient pressure, wherein the sealing arrangement has between at least a first sealing element adjacent to the gas pressure chamber and at least a second sealing element further away from the gas pressure chamber an oil pressure chamber , into which by means of a supply device oil can be pressed under a pressure which is equal to or greater than the gas pressure which is applied in the gas pressure chamber of the cylinder pipe in each case, wherein the supply device has a hydraulic accumulator (37; 51) whose oil side containing sealing oil is connected via a connection to the oil pressure chamber and whose gas side is connected to the gas pressure chamber of the cylinder pipe , characterised in that the rod-like pipe is open at the inner end thereof with respect to the gas pressure chamber of the cylinder pipe so that the inner side of the pipe which forms the piston rod is available as a part-volume of the gas pressure chamber , and in that in the terminal portion there are formed three annular grooves which are offset with respect to each other in an axial direction and which surround the piston rod and in that the first sealing element is located in the annular groove nearest the annular space , in that the annular groove which follows in the axial direction forms the oil pressure chamber and in that the second sealing element is located in the annular groove furthest away from the annular space .
A method of allocating internet protocol, IP, addresses by a controller for a software defined data center, SDDC, the method comprising: identifying a request for a first logical router associated with a first tenant of a plurality of tenants to obtain a public IP address for a virtual node ; selecting the public IP address from a pool , the pool comprising a plurality of public IP addresses that are allocated to a second logical router , wherein traffic addressed to any of the plurality of public IP addresses is directed to the second logical router ; updating network address translation, NAT, rules at the first logical router to associate a private IP address of the virtual node to the selected public IP address; and updating a next hop configuration at the second logical router to communicate packets associated with the selected public IP address to the first logical router associated with the first tenant, wherein the second logical router connects the first logical router to one or more external networks, and wherein the first logical router associated with the first tenant redirects traffic addressed to the selected public IP address to the private IP address of the virtual node . identifying a request for a first logical router associated with a first tenant of a plurality of tenants to obtain a public IP address for a virtual node ; selecting the public IP address from a pool , the pool comprising a plurality of public IP addresses that are allocated to a second logical router , wherein traffic addressed to any of the plurality of public IP addresses is directed to the second logical router ; updating network address translation, NAT, rules at the first logical router to associate a private IP address of the virtual node to the selected public IP address; and updating a next hop configuration at the second logical router to communicate packets associated with the selected public IP address to the first logical router associated with the first tenant, wherein the second logical router connects the first logical router to one or more external networks, and wherein the first logical router associated with the first tenant redirects traffic addressed to the selected public IP address to the private IP address of the virtual node .
A method comprising: tracking a relative pose between a camera and a target using a contribution from inertial sensor measurements and a contribution from vision based measurements, the vision based measurements being based on images of the target captured by the camera ; wherein the contribution from the inertial sensor measurements is a weighted contribution and the contribution from the vision based measurements is a weighted contribution; detecting movement of the target ; and reducing the weighted contribution from the inertial sensor measurements to track the relative pose between the camera and the target when movement of the target is detected; the method characterized in that the weighting of the contribution from the inertial sensor measurements is varied based on a confidence in the target motion detection. tracking a relative pose between a camera and a target using a contribution from inertial sensor measurements and a contribution from vision based measurements, the vision based measurements being based on images of the target captured by the camera ; wherein the contribution from the inertial sensor measurements is a weighted contribution and the contribution from the vision based measurements is a weighted contribution; detecting movement of the target ; and reducing the weighted contribution from the inertial sensor measurements to track the relative pose between the camera and the target when movement of the target is detected; the method characterized in that the weighting of the contribution from the inertial sensor measurements is varied based on a confidence in the target motion detection.
An optoelectronic sensor for the safe detection of objects in a monitored area , the optoelectronic sensor comprising a light receiver for generating a reception signal from received light from the monitored area and an evaluation unit which is configured to simultaneously monitor a first number of monitored fields , wherein a monitored field is a configured subarea of the monitored area , and to determine, on the basis of the received signal, in which monitored field or which monitored fields an object is located by comparing the position of the detected objects with the monitored fields , characterized in that the monitored fields overlap each other at least partially, so that a second number of monitored segments greater than the first number is generated, wherein the monitored segments differ from each other by the identity of the monitored fields overlapping therein, and in that a detected object is assigned to a monitored segment on the basis of the monitored fields in which an object is detected.
A method for sorting plastic objects , in particular as part of a recycling process, comprising emitting IR light towards one of the plastic objects, detecting IR intensities IR1, ... IRn of IR light reflected by the plastic object in at least two different IR wavelength ranges, determining a color of the plastic object, determining a type of the plastic object indicating the plastic material used by comparing at least the detected IR intensities and color values derived from the color of the plastic object to a plurality of reference quantities respectively associated with different types of plastic objects and determining the reference quantity being the closest match, sorting the plastic object in accordance with its type, determining an intended use of the plastic object by detecting the presence or absence of one or more markers associated with a predetermined intended use and having a luminescence in the visible range or the IR range, wherein the presence of the one or more markers is detected by acquiring a decay time of the luminescence of the same, and sorting the plastic object in accordance with its intended use. emitting IR light towards one of the plastic objects, detecting IR intensities IR1, ... IRn of IR light reflected by the plastic object in at least two different IR wavelength ranges, determining a color of the plastic object, determining a type of the plastic object indicating the plastic material used by comparing at least the detected IR intensities and color values derived from the color of the plastic object to a plurality of reference quantities respectively associated with different types of plastic objects and determining the reference quantity being the closest match, sorting the plastic object in accordance with its type, determining an intended use of the plastic object by detecting the presence or absence of one or more markers associated with a predetermined intended use and having a luminescence in the visible range or the IR range, wherein the presence of the one or more markers is detected by acquiring a decay time of the luminescence of the same, and sorting the plastic object in accordance with its intended use.
Synchronous machine - having at least one stator with a polyphase, preferably three-phase winding with a number of poles 2p ≥ 4, wherein the number of poles is twice the number of pole pairs p, the winding is arranged in n grooves in the at least one stator and designed to generate a magnetic rotating field, - having flux guide regions provided between the grooves of the at least one stator for guiding the magnetic rotating field, which comprise a ferromagnetic material, - having at least one rotor arranged on an axis of rotation, which is, relative to at least one stator, rotatably arranged forming an air gap and has regions with permanent magnets facing towards at least one stator and arranged evenly distributed in angular ranges in the circumferential direction with respect to the direction of rotation of the rotor, - wherein the permanent magnets are magnetised in the direction of the flux guide regions of the at least one stator or in the opposite direction thereto, - the at least one rotor has flux guide regions arranged between the permanent magnets , which serve to guide the magnetic flux from or into the at least one rotor , - wherein the flux guide regions of the at least one rotor comprise a ferromagnetic material, wherein at least one additional permanent magnet is provided, whose generated magnetic flux is at least partially guided via the flux guide regions of the rotor , wherein the magnetic flux of the additional permanent magnet in the flux guide regions of the rotor has a direction opposite to the magnetisation direction of the permanent magnets of the rotor, characterised in that the number of magnetic poles of the rotating field 2p 2 is twice the number of grooves n and the number of magnetic poles of the at least one rotor 2p 3 is: 2p 3 = 2p 2 - 2p. - having at least one stator with a polyphase, preferably three-phase winding with a number of poles 2p ≥ 4, wherein the number of poles is twice the number of pole pairs p, the winding is arranged in n grooves in the at least one stator and designed to generate a magnetic rotating field, - having flux guide regions provided between the grooves of the at least one stator for guiding the magnetic rotating field, which comprise a ferromagnetic material, - having at least one rotor arranged on an axis of rotation, which is, relative to at least one stator, rotatably arranged forming an air gap and has regions with permanent magnets facing towards at least one stator and arranged evenly distributed in angular ranges in the circumferential direction with respect to the direction of rotation of the rotor, - wherein the permanent magnets are magnetised in the direction of the flux guide regions of the at least one stator or in the opposite direction thereto, - the at least one rotor has flux guide regions arranged between the permanent magnets , which serve to guide the magnetic flux from or into the at least one rotor , - wherein the flux guide regions of the at least one rotor comprise a ferromagnetic material,
A method for sidelink, SL, configured grant, CG, resource determination, comprising: determining, by a terminal device, a time-domain resource for a first SL CG according to at least one of: a number of slots corresponding to a period of the first SL CG in a resource pool associated with the first SL CG and an offset in time domain of a target SL transmission resource in the first SL CG relative to a first SL transmission resource, wherein the number of slots corresponding to the period of the first SL CG in the resource pool associated with the first SL CG is determined according to at least one of: a total length of a bitmap for configuring resource-pool time-domain resources, a number of bits with a first value in the bitmap for configuring resource-pool time-domain resources, and the period of the first SL CG configured by a network device.
A plurality of AAV particles, said AAV particles (i) comprising an AAV capsid protein and a nucleic acid inserted between a pair of AAV inverted terminal repeats (ITRs), said nucleic acid encoding a polypeptide, wherein said polypeptide comprises a tripeptidylpeptidase 1 (TPP1) polypeptide having at least 90% identity to an amino acid sequence set forth in SEQ ID NO:5 or a pro-enzyme thereof, and (ii) being capable of transducing cells of said mammal and providing expression of said polypeptide; and a first immunosuppressive agent and a second immunosuppressive agent, for use in treating a lysosomal storage disease (LSD) in a mammal, wherein the plurality of AAV particles is to be administered to the brain or spine of said mammal, wherein said first immunosuppressive agent and said second immunosuppressive agent are to be administered to said mammal, wherein said first immunosuppressive agent is cyclosporine and said second immunosuppressive agent is mycophenolate mofetil (MMF), wherein at least one of said first immunosuppressive agent and said second immunosuppressive agent are to be administered to said mammal prior to administration of said AAV particles, and wherein neutralizing antibody titer in said mammal is reduced by administration of said first immunosuppressive agent and said second immunosuppressive agent. wherein the plurality of AAV particles is to be administered to the brain or spine of said mammal, wherein said first immunosuppressive agent and said second immunosuppressive agent are to be administered to said mammal, wherein said first immunosuppressive agent is cyclosporine and said second immunosuppressive agent is mycophenolate mofetil (MMF), wherein at least one of said first immunosuppressive agent and said second immunosuppressive agent are to be administered to said mammal prior to administration of said AAV particles, and wherein neutralizing antibody titer in said mammal is reduced by administration of said first immunosuppressive agent and said second immunosuppressive agent.