mhurhangee/patent-ind-claim-en huggingface dataset:
A computing device comprising processing circuitry configured to cause the computing device to: expose, to an application server, at least one resource hosted by the computing device by providing, to the application server, a hypermedia document, wherein the hypermedia document conforms to a data model for use by constrained devices and comprises a representation of the resource hosted by the computing device, and a pointer to a metadata associated with the resource hosted by the computing device, said metadata comprising a value of a parameter characterising access of the computing device to a communication network over which the computing device is operable to communicate . a representation of the resource hosted by the computing device, and a pointer to a metadata associated with the resource hosted by the computing device, said metadata comprising a value of a parameter characterising access of the computing device to a communication network over which the computing device is operable to communicate .
Method for enhancing materials by pulsed power according to which a succession of electrical discharges are generated between at least two electrodes in a reactor receiving an ambient liquid as well as materials to be enhanced, wherein the succession of said electrical discharges produces, due to the energy, the frequency of electrical discharges, as well as due to the voltage between the electrodes and the switching time, a mechanical shockwave which is propagated on the materials and/or products to be treated in the reactor, characterised in that , during the implementation of said method, said ambient liquid is cooled by a continuous or carrousel cooling system, and in that after a first step of weakening by the mechanical shockwave thus produced, the materials are subjected to a succession of electrical discharges, of which the energy, the intensity, the voltage between the electrodes which generate them, the switching time and the discharge frequency are selected such that said discharges produce a grinding of the material by direct effect of the electrical discharges, said method making it possible to obtain particles on a nanometric scale.
A method performed in a fingerprint analysis system for facilitating differentiating between a live finger and a spoof finger, the method comprising: acquiring (S1) a plurality of time-sequences of images (I 1 ..I n ), each of the time-sequences showing a respective finger as it engages a detection surface of a fingerprint sensor during a time period when the finger is approaching and being pressed against the detection surface, each of the time-sequences comprising at least a first image (I 1 ) and a last image (I n ) showing a fingerprint topography of the finger, wherein the respective fingers of some of the time-sequences are known to be live fingers and the respective fingers of some other of the time-sequences are known to be spoof fingers; and training (S 2 ) a machine learning algorithm on the plurality of time-sequences to produce a model of the machine learning algorithm for differentiating between a live finger and a spoof finger, based on that a live finger exerts uniform pressure over a detection area of the detection surface almost instantly while a spoof finger takes more time to exert even pressure over the whole detection area . acquiring (S1) a plurality of time-sequences of images (I 1 ..I n ), each of the time-sequences showing a respective finger as it engages a detection surface of a fingerprint sensor during a time period when the finger is approaching and being pressed against the detection surface, each of the time-sequences comprising at least a first image (I 1 ) and a last image (I n ) showing a fingerprint topography of the finger, wherein the respective fingers of some of the time-sequences are known to be live fingers and the respective fingers of some other of the time-sequences are known to be spoof fingers; and training (S 2 ) a machine learning algorithm on the plurality of time-sequences to produce a model of the machine learning algorithm for differentiating between a live finger and a spoof finger, based on that a live finger exerts uniform pressure over a detection area of the detection surface almost instantly while a spoof finger takes more time to exert even pressure over the whole detection area .
An antagonist of GM-CSF, wherein the antagonist is an antibody specific for GM-CSF or an antibody specific for the GM-CSF receptor, for use in the treatment of osteoarthritic pain in a subject.
A method for manufacturing a multilayer card body , in particular for a portable data carrier, having the following steps: - laminating together at least a first layer and a second layer to form a laminated sheet, - separating the multilayer card body from the laminated sheet, the multilayer card body having a top surface , a bottom surface and a side surface , and - sealing the side surface of the multilayer card body during the separating step or as a step following the separating step , wherein no test for determining delamination of the layers at the side surface is performed prior to the sealing step, characterized in that the side surface is sealed by using mechanical or laser engrailed edges or micro-structuring. - laminating together at least a first layer and a second layer to form a laminated sheet, - separating the multilayer card body from the laminated sheet, the multilayer card body having a top surface , a bottom surface and a side surface , and - sealing the side surface of the multilayer card body during the separating step or as a step following the separating step , wherein no test for determining delamination of the layers at the side surface is performed prior to the sealing step, the side surface is sealed by using mechanical or laser engrailed edges or micro-structuring.
A cooling system for an electric power unit in a vehicle , wherein the electric power unit comprises an electric machine , an electric energy storage for storing of electrical energy and power electronics for controlling the flow of electrical energy between the electrical energy storage and the electric machine , and wherein the cooling system comprises a high temperature cooling circuit with a circulating coolant for cooling the power electronics , a first radiator arranged in the high temperature cooling circuit , a low temperature cooling circuit with a circulating coolant for cooling the electric energy storage , a second radiator arranged in the low temperature cooling circuit and a refrigeration system configured to cool the coolant in the low temperature cooling circuit in a chiller , characterized in that , during an operating condition when it is not possible to cool the coolant in the second radiator by surrounding air to a temperature low enough to cool the electrical energy storage , the cooling system comprises first flow means directing coolant in the low temperature cooling circuit past the second radiator and second flow means (36-39) directing coolant in the high temperature cooling circuit to the first radiator where it is cooled in a first step and then to the second radiator where it is cooled in a second step before it is used to cool the power electronics .
A method of facilitating an individualized interaction with an electronic device , comprising: establishing by the electronic device an open communication session between a server and the electronic device due to the utilization of a server push technique; receiving , at a smartphone, an identity of the electronic device; sending the identity and other data from the smartphone to the server ; and initiating by the smartphone an individualized interaction with the electronic device in response to the server determining that the smartphone is proximate to the electronic device; wherein the individualized interaction is initiated via the previously established, open communication session between the server and the electronic device. establishing by the electronic device an open communication session between a server and the electronic device due to the utilization of a server push technique; receiving , at a smartphone, an identity of the electronic device; sending the identity and other data from the smartphone to the server ; and initiating by the smartphone an individualized interaction with the electronic device in response to the server determining that the smartphone is proximate to the electronic device; wherein the individualized interaction is initiated via the previously established, open communication session between the server and the electronic device.
Brake module for a hydraulically braked towing vehicle (30; 31) which can be coupled to a pneumatically braked towed vehicle , wherein the towing vehicle has a hydraulically activated service brake which has at least one master brake cylinder , which can be activated by a brake activation element (7, 8; 8a), for generating a hydraulic pressure in at least one wheel brake cylinder of at least one wheel (32; 33; 34; 35) of the towing vehicle (30; 31), and wherein the brake module has a towed vehicle control valve which is connected via a hydraulic control inlet (H41) to a hydraulic pressure line (H1; H2), which leaves the master brake cylinder , and via a pneumatic supply pressure inlet (P11) to the compressed air reservoir , wherein the hydraulic control pressure determines the level of the pneumatic output pressure at a pneumatic outlet (P22) of the towed vehicle control valve , and wherein the brake module has a breakaway protection module which in the case of leakage or breaking away of the control line (P22) from the towed vehicle control valve to the brake system of the towed vehicle shuts off a supply line (P21) to a supply pressure coupling head and brings about de-aerating of the brake system of the towed vehicle , wherein the breakaway protection module is provided with a pneumatic supply pressure inlet (P11b) and with a pneumatic breakaway control pressure inlet (P44), wherein the breakaway control pressure inlet (P44) is connected to a compressed air reservoir of the towing vehicle (30; 31) independently of pneumatic pressure inlets (P42, P43) of the towed vehicle control valve , wherein supply pressure which is present at the supply pressure inlet (P11b) can be passed through the breakaway protection module and can be fed to the pneumatic supply pressure inlet (P11) of the towed vehicle control valve , wherein a normally closed 3/2-way valve is arranged between the compressed air reservoir and the breakaway control pressure inlet (P44) of the breakaway protection module , this 3/2-way valve being switched into an open position when the service brake is activated and releasing compressed air to the breakaway control pressure inlet (P44) of the breakaway protection module , characterised in that the towed vehicle control valve has a pneumatic pilot-control pressure inlet (P43), into which compressed air can be fed for pilot-controlling the brake system of the towed vehicle , and a pressure-limiting valve is arranged in a supply line between the normally closed 3/2-way solenoid valve and the pilot-control pressure inlet (P43) of the towed vehicle control valve .
A cooker comprising a burner that has a burner plate ; a nozzle that provides injection of gas from the lower side of the burner plate ; a burner head seated on the burner plate ; more than one air inlet arranged between the burner plate and the burner head and that provides air intake; a burner cap seated on the burner head ; more than one outlet arranged between the burner head and the burner cap and a Venturi channel that is arranged at the center of the burner head , that extends in the vertical direction from the nozzle towards the burner cap , that enables air to be sucked from the air inlets by creating negative pressure and that forms a flow path for the air - gas mixture entering from the air inlet and the nozzle and exiting from the outlets , characterized by the Venturi channel comprising a Venturi throat that has a smaller Venturi channel cross-sectional area (B) than the peripheral air - gas outlet area (C) remaining between the burner cap and the Venturi channel .
A relay apparatus comprising an access node for a femto cell and a relay node for providing backhaul to a macro cell base station , wherein when the relay apparatus receives a cell restriction instruction from the macro cell base station to restrict a quantity of terminals capable of existing in a service area of a cell formed by the macro cell base station , the relay apparatus executes processing for avoiding cell restriction operation on itself and transfers the cell restriction instruction received from the macro cell base station to the terminal devices existing in a service area of a cell formed by the relay apparatus itself; wherein if the relay apparatus has received an individual cell restriction instruction from a management server to restrict the quantity of terminals capable of existing in the service area of the cell formed by the relay apparatus itself in addition to the cell restriction instruction received from the macro cell base station when transmitting the cell restriction instruction to the terminal devices existing in the service area of the cell formed by the relay apparatus itself, the relay apparatus compares an ac-Barring Factor of the cell restriction instruction with an ac-Barring Factor of the individual cell restriction instruction, and transmits the individual cell restriction instruction received from the management server, or the cell restriction instruction received from the macro cell base station , whichever has a higher restriction level, to the terminal devices existing in the service area of the cell formed by the relay apparatus itself.
A method for detecting a Physical Downlink Control Channel, PDCCH, comprising: a User Equipment, UE, detecting a PDCCH of the UE in a first search space and a second search space, wherein the first search space and the second search space are resources for a base station to send downlink control channel information, wherein the first search space is distributed at a time-frequency location; and the second search space is distributed at another time-frequency location, wherein the time frequency at which the first search space is located and the time frequency at which the second search space is located can overlap, characterized in that the step of the UE detecting the PDCCH in the first search space and the second search space comprises: the UE using a configuration of {a, b, c, d} as the number of PDCCH candidates to detect the PDCCH in the first search space or the second search space, wherein a, b, c and d are all positive integers and a + b + c + d is less than or equals 8. wherein the first search space is distributed at a time-frequency location; and the second search space is distributed at another time-frequency location, wherein the time frequency at which the first search space is located and the time frequency at which the second search space is located can overlap, characterized in that the step of the UE detecting the PDCCH in the first search space and the second search space comprises: the UE using a configuration of {a, b, c, d} as the number of PDCCH candidates to detect the PDCCH in the first search space or the second search space, wherein a, b, c and d are all positive integers and a + b + c + d is less than or equals 8.
A method for acquisition of NIR and full-color images, comprising the steps of: continuously illuminating an area under observation with blue/green light, continuously illuminating the area under observation with red light and periodically with NIR light, or continuously illuminating the area under observation with NIR light and periodically with red light, directing blue and green reflectance light and combined red reflectance light / detected NIR light to one or more sensors configured to separately detect the blue reflectance light, the green reflectance light, and the red reflectance light / detected NIR light, wherein the red reflectance light / detected NIR light is detected in synchronism with the switched red light and NIR light, determining from image signals of the combined red reflectance light /detected NIR light separately the red reflectance light spectral component and the detected NIR light spectral component, displaying a full-color image of the area under observation from the blue and green reflectance light and the separately determined red light spectral component, and displaying an NIR image from the detected NIR light spectral component. continuously illuminating an area under observation with blue/green light, continuously illuminating the area under observation with red light and periodically with NIR light, or continuously illuminating the area under observation with NIR light and periodically with red light, directing blue and green reflectance light and combined red reflectance light / detected NIR light to one or more sensors configured to separately detect the blue reflectance light, the green reflectance light, and the red reflectance light / detected NIR light, wherein the red reflectance light / detected NIR light is detected in synchronism with the switched red light and NIR light, determining from image signals of the combined red reflectance light /detected NIR light separately the red reflectance light spectral component and the detected NIR light spectral component, displaying a full-color image of the area under observation from the blue and green reflectance light and the separately determined red light spectral component, and displaying an NIR image from the detected NIR light spectral component.
An accelerometer system , comprising: a flexural beam having a first face and a second face opposite the first face ; a first coil of optical fiber coupled to the first face , and a second coil of optical fiber coupled to the second face , wherein the first coil of optical fiber is encapsulated by a cured encapsulation composition , the encapsulation composition having a viscosity from 30 to 300 millipascal-second at 25°C, characterized in that the flexural beam comprises a channel (131-1) configured to provide fluid communication between the first face and the second face prior to the encapsulation. a flexural beam having a first face and a second face opposite the first face ; a first coil of optical fiber coupled to the first face , and a second coil of optical fiber coupled to the second face , wherein the first coil of optical fiber is encapsulated by a cured encapsulation composition , the encapsulation composition having a viscosity from 30 to 300 millipascal-second at 25°C, characterized in that the flexural beam comprises a channel (131-1) configured to provide fluid communication between the first face and the second face prior to the encapsulation.
A current limiting circuit for a motor controller comprising: a comparator having a sensed current input , a current threshold input , and an overcurrent protection trip output ; a variable resistance current threshold circuit connected to the current threshold input; characterized by the variable resistance current threshold circuit being a resistor ladder having multiple sections, and wherein each resistor within a single section of the resistor ladder is equivalent to each other resistor in the single section; and a first controller connected to the variable resistance current threshold circuit via a plurality of connections, the first controller being configured to control a voltage output of said variable resistance current threshold circuit by providing a voltage to the corresponding sections of the resistance ladder and allowing the provided voltages to promulgate through the resistor ladder; and wherein each resistor in the resistor ladder circuit is from a single batch. a comparator having a sensed current input , a current threshold input , and an overcurrent protection trip output ; a variable resistance current threshold circuit connected to the current threshold input; characterized by the variable resistance current threshold circuit being a resistor ladder having multiple sections, and wherein each resistor within a single section of the resistor ladder is equivalent to each other resistor in the single section; and a first controller connected to the variable resistance current threshold circuit via a plurality of connections, the first controller being configured to control a voltage output of said variable resistance current threshold circuit by providing a voltage to the corresponding sections of the resistance ladder and allowing the provided voltages to promulgate through the resistor ladder; and wherein each resistor in the resistor ladder circuit is from a single batch.
Artificial joint implant , having a first implant part , a second implant part , and at least one fixing element for fixing the first and the second implant part to each other in a non-positive- and/or positive-locking manner in a connecting position, characterized in that the at least one fixing element and the first implant part are moveably coupled to each other in a non-detachable manner, in such a way that the at least one fixing element is detachable from the first implant part only by destroying the at least one fixing element or the first implant part , and in that the at least one fixing element is integrally formed.
Process for increasing the β-glucosidase and/or de β-xylosidase rates of an enzymatic cocktail from a cellulolytic microorganism producing cellulases and/or hemi-cellulases, comprising: - a step for the production of enzymes with a medium being obtained containing enzymes and a microorganism must, said must is separated, or not separated, from the liquid containing said enzymes, - a step of cooling said must to a temperature comprised between 4 and 20°C, which is a temperature below the temperature of the enzyme production step, for a time comprised between 12 and 90 hours such that: - the beta-glucosidase or β-xylosidase concentration of the liquid originating from the cooling step is greater than that of the liquid originating from the enzyme production step, and/or - the solid volume/total volume ratio is less than said ratio for the enzyme production step, - and an enzymatic cocktail is obtained at the end of the cooling step. - a step for the production of enzymes with a medium being obtained containing enzymes and a microorganism must, said must is separated, or not separated, from the liquid containing said enzymes, - a step of cooling said must to a temperature comprised between 4 and 20°C, which is a temperature below the temperature of the enzyme production step, for a time comprised between 12 and 90 hours such that: - the beta-glucosidase or β-xylosidase concentration of the liquid originating from the cooling step is greater than that of the liquid originating from the enzyme production step, and/or - the solid volume/total volume ratio is less than said ratio for the enzyme production step, - the beta-glucosidase or β-xylosidase concentration of the liquid originating from the cooling step is greater than that of the liquid originating from the enzyme production step, and/or - the solid volume/total volume ratio is less than said ratio for the enzyme production step, - and an enzymatic cocktail is obtained at the end of the cooling step.