mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for estimating a trajectory of a tool, the apparatus comprising: a memory configured to store instructions; and a processor configured to execute the instructions stored in the memory to: receive (S310) a task to be performed by the tool on a target object: receive (S320) a grayscale image and a depth image of the target object based on an image that contains the target object; estimate (110, S330) a tool trajectory for performing the task, by processing the grayscale image and the depth image in separate streams, via a pixels-to-plans neural network that is trained based on a labeled tool trajectory that is generated from a three dimensional, 3D, model of the target object; receive a camera-to-tool calibration value that indicates a relative position of the camera in relation to a position of the tool, and transform (232, S340) the tool trajectory in a camera frame to a tool trajectory in a tool frame, based on the camera-to-tool calibration value, wherein the estimated tool trajectory is a tool trajectory from a position of a camera that captures the grayscale image and the depth image. a memory configured to store instructions; and a processor configured to execute the instructions stored in the memory to: receive (S310) a task to be performed by the tool on a target object: receive (S320) a grayscale image and a depth image of the target object based on an image that contains the target object; estimate (110, S330) a tool trajectory for performing the task, by processing the grayscale image and the depth image in separate streams, via a pixels-to-plans neural network that is trained based on a labeled tool trajectory that is generated from a three dimensional, 3D, model of the target object; receive a camera-to-tool calibration value that indicates a relative position of the camera in relation to a position of the tool, and transform (232, S340) the tool trajectory in a camera frame to a tool trajectory in a tool frame, based on the camera-to-tool calibration value, receive (S310) a task to be performed by the tool on a target object: receive (S320) a grayscale image and a depth image of the target object based on an image that contains the target object; estimate (110, S330) a tool trajectory for performing the task, by processing the grayscale image and the depth image in separate streams, via a pixels-to-plans neural network that is trained based on a labeled tool trajectory that is generated from a three dimensional, 3D, model of the target object; receive a camera-to-tool calibration value that indicates a relative position of the camera in relation to a position of the tool, and transform (232, S340) the tool trajectory in a camera frame to a tool trajectory in a tool frame, based on the camera-to-tool calibration value, wherein the estimated tool trajectory is a tool trajectory from a position of a camera that captures the grayscale image and the depth image.
A game control program product comprising: a module operative to control a game where a player controls a player's character and advances in a game field formed of multiple areas; a module operative to acquire play data of another player or a message, from a game server adapted to manage the play data and the message, the play data indicating the status of progress of the game in the game field, and the message being directed to another player displayed in the game field, where the play data or the message is registered to an area of the game field; and a module operative to display the play data or the message when the player's character is located within an area of the game field where the play data or the message is registered. a module operative to control a game where a player controls a player's character and advances in a game field formed of multiple areas; a module operative to acquire play data of another player or a message, from a game server adapted to manage the play data and the message, the play data indicating the status of progress of the game in the game field, and the message being directed to another player displayed in the game field, where the play data or the message is registered to an area of the game field; and a module operative to display the play data or the message when the player's character is located within an area of the game field where the play data or the message is registered.
An implantable coil for use in a transcutaneous energy transfer system, comprising: a coil winding configured to inductively couple to a primary coil disposed external to a patient's body, the coil winding adapted to produce an electric current in the presence of a time-varying magnetic field operating at a first frequency; a ferrite core coupled to the coil winding , said ferrite core having a planar surface substantially parallel to the coil winding ; circuitry contained in the ferrite core and in electrical communication with the coil winding , the circuitry adapted to receive and condition the electric current produced in the coil winding ; and a radio frequency (RF) antenna configured to operate at a second frequency different from the first frequency, the RF antenna comprising a micro-strip patch antenna disposed on the planar surface of the ferrite core such that the micro-strip patch antenna is substantially parallel to a skin surface and is disposed between the skin surface and the ferrite core when the coil winding is implanted in the patient at a location just below the skin surface, wherein the ferrite core is configured to isolate said circuitry from the first and second frequencies. a coil winding configured to inductively couple to a primary coil disposed external to a patient's body, the coil winding adapted to produce an electric current in the presence of a time-varying magnetic field operating at a first frequency; a ferrite core coupled to the coil winding , said ferrite core having a planar surface substantially parallel to the coil winding ; circuitry contained in the ferrite core and in electrical communication with the coil winding , the circuitry adapted to receive and condition the electric current produced in the coil winding ; and a radio frequency (RF) antenna configured to operate at a second frequency different from the first frequency, the RF antenna comprising a micro-strip patch antenna disposed on the planar surface of the ferrite core such that the micro-strip patch antenna is substantially parallel to a skin surface and is disposed between the skin surface and the ferrite core when the coil winding is implanted in the patient at a location just below the skin surface, wherein the ferrite core is configured to isolate said circuitry from the first and second frequencies.
A method comprising: receiving, at a network device of a private Long Term Evolution, LTE, network operating in a Citizens Broadband Radio Service, CBRS, spectrum, a functional group associated with a user equipment, UE; receiving, at the network device, a traffic load of a cell of the private LTE network; determining, by the network device, an access priority associated with the functional group and the traffic load; and providing, by the network device, the access priority to a CBRS access point, AP, which controls access to the cell, wherein the access priority indicates to the CBRS AP a priority with which the UE is allowed to access the cell. receiving, at a network device of a private Long Term Evolution, LTE, network operating in a Citizens Broadband Radio Service, CBRS, spectrum, a functional group associated with a user equipment, UE; receiving, at the network device, a traffic load of a cell of the private LTE network; determining, by the network device, an access priority associated with the functional group and the traffic load; and providing, by the network device, the access priority to a CBRS access point, AP, which controls access to the cell, wherein the access priority indicates to the CBRS AP a priority with which the UE is allowed to access the cell.
A printing device for printing on a medium by inkjet printing, the printing device comprising: a glossy ink head that is an inkjet head configured to discharge ink droplets of a glossy ink having a glossy color, the glossy ink containing a glossy pigment and a solvent; and a main scan driver configured to prompt the glossy ink head to perform main scans in which the glossy ink head discharges the ink droplets while moving in a main scanning direction previously set, the glossy ink head , in the main scans, being configured to discharge the ink droplets plural times while moving in the main scanning direction to form ink dots at a plurality of positions on the medium aligned in the main scanning direction, the printing device being further characterized in that : the ink droplets discharged from the glossy ink head each have a volume constituting a size that allows for contact on the medium between any one of the ink dots in a liquid state and at least one other of the ink dots formed in a single one of the main scans, before the solvent on the medium is volatilized; the glossy ink containing a light-reflecting pigment including scaly particles. a glossy ink head that is an inkjet head configured to discharge ink droplets of a glossy ink having a glossy color, the glossy ink containing a glossy pigment and a solvent; and a main scan driver configured to prompt the glossy ink head to perform main scans in which the glossy ink head discharges the ink droplets while moving in a main scanning direction previously set, the glossy ink head , in the main scans, being configured to discharge the ink droplets plural times while moving in the main scanning direction to form ink dots at a plurality of positions on the medium aligned in the main scanning direction, the printing device being further characterized in that : the ink droplets discharged from the glossy ink head each have a volume constituting a size that allows for contact on the medium between any one of the ink dots in a liquid state and at least one other of the ink dots formed in a single one of the main scans, before the solvent on the medium is volatilized; the glossy ink containing a light-reflecting pigment including scaly particles. the ink droplets discharged from the glossy ink head each have a volume constituting a size that allows for contact on the medium between any one of the ink dots in a liquid state and at least one other of the ink dots formed in a single one of the main scans, before the solvent on the medium is volatilized; the glossy ink containing a light-reflecting pigment including scaly particles.
Rotor blade for a wind turbine, comprising a hollow blade body with a root and a tip , whereby the blade body is split along a split plane into two body parts , one extending from the root to a first connection section and the other extending from a second connection section to the tip , wherein the first and the second connection sections are adapted to overlap each other in the connected position, characterised in that the split plane is in an area where the rotor blade has a convex peripheral geometry seen from the side of the blade and where it has a single curved cross section seen in the direction from the root to the tip .
A method for establishing a secure communication between a plurality of Internet of Things, IoT, devices, the method comprising: provisioning a first and a second loT devices by providing a unique identification, a digital identity token and a cryptographic key to and issuing a first digital certificate to each of the first and second loT devices ; inviting the second loT device by the first loT device to establish a communication line with the first loT device by receiving a digital identity token, DIT, from the second loT device , authenticating the second loT device using the unique identification, the digital identity token and the cryptographic key of the second loT device ; establishing a secure communication line between the first loT device and the second loT device by authenticating the established communication line and issuing a second digital certificate to the communication line between the first loT device and the second loT device ; and preventing a third loT device for which a secure communication line to the first or second loT device has not been established from communicating with the first or second loT device . provisioning a first and a second loT devices by providing a unique identification, a digital identity token and a cryptographic key to and issuing a first digital certificate to each of the first and second loT devices ; inviting the second loT device by the first loT device to establish a communication line with the first loT device by receiving a digital identity token, DIT, from the second loT device , authenticating the second loT device using the unique identification, the digital identity token and the cryptographic key of the second loT device ; establishing a secure communication line between the first loT device and the second loT device by authenticating the established communication line and issuing a second digital certificate to the communication line between the first loT device and the second loT device ; and preventing a third loT device for which a secure communication line to the first or second loT device has not been established from communicating with the first or second loT device .
An optoelectronic sensor for detecting three-dimensional image data from a monitored region , comprising an illumination unit for illuminating the monitored region with modulated transmitted light concentrated on partial regions , a light receiver for simultaneously receiving the transmitted light remitted by objects in the monitored region at at least two locations at a mutual distance corresponding to a first resolution raster , and a control and evaluation unit configured to determine light times of flight from properties of the modulated and remitted transmitted light and to acquire three-dimensional image data by at least one measurement repetition with light reception from at least two other locations which have been changed with respect to the first resolution raster and to adapt the illumination unit to the respective locations , characterized in that the locations are displaced for the at least one measurement repetition, and the displacement causes measurement points to be detected in the gaps of the original first resolution raster , the measurement points within a measurement repetition having a distance corresponding to the first resolution raster, and the displacement being smaller than the distance between two points of the first resolution raster, and in that thus, after the at least one measurement repetition, three-dimensional image data with an improved lateral resolution are provided in a second resolution raster whose distance results from the displacements and which is finer than the first resolution raster.
A method, for monitoring a vacuum on-load tap changer , wherein the tap changer comprises: - a housing filled with insulating fluid , - a diverter switch arranged inside of the housing and comprising at least one movable contact (MC, RC) and at least two vacuum interrupters comprising a main vacuum interrupter (MV) and a resistor vacuum interrupter (RV) for interrupting a current through the at least one movable contact, - at least one pressure sensor which measures the pressure in the housing , wherein the method comprises: - determining (S1) a pressure signature , including two succeeding peaks within a predetermined time interval, a first of the peaks corresponding to the main vacuum interrupter (MV) being open and a second of the peaks corresponding to the resistor vacuum interrupter being open, and where the maximum pressure does not exceed a predetermined level, - continuously (S2) measuring the pressure in the housing with the pressure sensor , for detecting opening and closing of the main vacuum interrupter and the resistor vacuum interrupter, wherein the pressure increases when a respective of the vacuum interrupters is opened and drops when it closes, - detecting (S3) when the measured pressure shows the pressure signature , - determining (S4), based on the measured pressure within the pressure signature , the time between the first rise in pressure and the second drop, and - setting (S5) the determined time to represent the switch time of the diverter switch . - a housing filled with insulating fluid , - a diverter switch arranged inside of the housing and comprising at least one movable contact (MC, RC) and at least two vacuum interrupters comprising a main vacuum interrupter (MV) and a resistor vacuum interrupter (RV) for interrupting a current through the at least one movable contact, - at least one pressure sensor which measures the pressure in the housing , - determining (S1) a pressure signature , including two succeeding peaks within a predetermined time interval, a first of the peaks corresponding to the main vacuum interrupter (MV) being open and a second of the peaks corresponding to the resistor vacuum interrupter being open, and where the maximum pressure does not exceed a predetermined level, - continuously (S2) measuring the pressure in the housing with the pressure sensor , for detecting opening and closing of the main vacuum interrupter and the resistor vacuum interrupter, wherein the pressure increases when a respective of the vacuum interrupters is opened and drops when it closes, - detecting (S3) when the measured pressure shows the pressure signature , - determining (S4), based on the measured pressure within the pressure signature , the time between the first rise in pressure and the second drop, and - setting (S5) the determined time to represent the switch time of the diverter switch .
A method for quantitative or qualitative determination of fungal cells in a sample potentially containing β-N-acetythexosaminidase3.2.1.52 (NAHA) from non-fungal sources, comprising contacting or mixing the sample with a substrate to produce a reaction mixture and subsequently assessing the numbers or concentration of the fungal cells in the sample as a function of measured conversion of the substrate in the reaction mixture after producing the reaction mixture, wherein - the substrate can be converted by (NAHA) produced by the fungal cells and by non-fungal NAHA, and - a preferential inhibitor of the enzymatic conversion of the substrate by non-fungal NAHA is present in the reaction mixture; wherein the preferential inhibitor is one that upon prolonged incubation with fungal cells inhibits the NAHA activity from fungal cells in a manner similar to the inhibition of non-fungal NAHA activity, wherein the preferential inhibitor is a metal ion selected from Ag + , Hg 2+ , and Pb 2+ or is 2-Acetamido-1,2-dideoxynojirimycin. - the substrate can be converted by (NAHA) produced by the fungal cells and by non-fungal NAHA, and - a preferential inhibitor of the enzymatic conversion of the substrate by non-fungal NAHA is present in the reaction mixture; wherein the preferential inhibitor is one that upon prolonged incubation with fungal cells inhibits the NAHA activity from fungal cells in a manner similar to the inhibition of non-fungal NAHA activity, wherein the preferential inhibitor is a metal ion selected from Ag + , Hg 2+ , and Pb 2+ or is 2-Acetamido-1,2-dideoxynojirimycin.
A solid battery comprising: a positive electrode layer ; a negative electrode layer ; a current collecting layer ; a solid electrolyte layer; and an insulating layer , wherein the solid electrolyte layer is made of a material having a glass transition point of 500°C or less, each of the positive electrode layer , the negative electrode layer , the current collecting layer , and the insulating layer contains a material having a glass transition point of 500°C or less in an amount of 10 vol% or more and 60 vol% or less, and among the contents of the material having a glass transition point of 500°C or less in each of the positive electrode layer , the negative electrode layer , the current collecting layer , and the insulating layer , a difference between a maximum content and a minimum content is 30 vol% or less. a positive electrode layer ; a negative electrode layer ; a current collecting layer ; a solid electrolyte layer; and an insulating layer , wherein the solid electrolyte layer is made of a material having a glass transition point of 500°C or less, each of the positive electrode layer , the negative electrode layer , the current collecting layer , and the insulating layer contains a material having a glass transition point of 500°C or less in an amount of 10 vol% or more and 60 vol% or less, and among the contents of the material having a glass transition point of 500°C or less in each of the positive electrode layer , the negative electrode layer , the current collecting layer , and the insulating layer , a difference between a maximum content and a minimum content is 30 vol% or less.
Method for changing a welding process during a welding operation, the change being carried out from a welding process that has been carried out to a subsequent welding process during a short circuit between a melting welding wire and a workpiece , characterised in that , upon detecting the short circuit of the welding process that has been carried out, the welding wire is still moved for a defined duration in the movement direction and is then stopped, depending on a threshold value of the welding current (I) of the subsequent welding process, whereupon the welding wire is moved in the opposite direction in order to start the subsequent welding process upon reaching the threshold value of the welding current (I).
Heat exchanger for a refrigerant fluid loop , the heat exchanger comprising at least one inlet configured to allow a refrigerant fluid (R) to enter in the heat exchanger and at least one outlet configured to allow the refrigerant fluid (R) to exit the heat exchanger , the heat exchanger comprising at least one block in which a filter is arranged, characterized in that the at least one block is arranged downstream the at least one outlet of the heat exchanger , wherein the block comprises at least one first part and at least one second part secured to the first part , and wherein the filter is arranged between said first part and said second part , characterised in that the first part comprises a finger realized on said first part of the block and the second part comprises a groove realized in said second part of said block , wherein the first part is positioned thanks to a cooperation between the finger and the groove . wherein the block comprises at least one first part and at least one second part secured to the first part , and wherein the filter is arranged between said first part and said second part , characterised in that the first part comprises a finger realized on said first part of the block and the second part comprises a groove realized in said second part of said block , wherein the first part is positioned thanks to a cooperation between the finger and the groove .