mhurhangee/patent-ind-claim-en huggingface dataset:
A method for displaying a user interface on a terminal device , wherein the terminal device comprises a trusted execution environment, TEE , and a rich execution environment, REE , a rich operating system and a client application, CA , run in the REE , a trusted operating system runs in the TEE , and a user interface of the CA comprises a common control and a secure control; and the method comprises: rendering, by the rich operating system , the common control in the user interface to obtain a first surface; transferring information about the secure control to a corresponding trusted application in the TEE based on a communication ID and using an external interface provided by the TEE; rendering, by the trusted operating system , the secure control in the user interface to obtain a second surface, wherein the trusted application renders the secure control based on a related graphics service or component provided by the trusted operating system; obtaining, by the trusted operating system , the first surface; compositing, by the trusted operating system , the first surface and the second surface to obtain a composited surface that comprises both the common control and the secure control, and displaying the composited surface by using a display . rendering, by the rich operating system , the common control in the user interface to obtain a first surface; transferring information about the secure control to a corresponding trusted application in the TEE based on a communication ID and using an external interface provided by the TEE; rendering, by the trusted operating system , the secure control in the user interface to obtain a second surface, wherein the trusted application renders the secure control based on a related graphics service or component provided by the trusted operating system; obtaining, by the trusted operating system , the first surface; compositing, by the trusted operating system , the first surface and the second surface to obtain a composited surface that comprises both the common control and the secure control, and displaying the composited surface by using a display .
A monofocal intraocular lens, comprising: an optic having an anterior surface and a posterior surface, providing a refractive base power, at least one of the anterior surface and the posterior surface having disposed thereon a combined profile comprising steps having heights determined by combining three constituent diffractive profiles, the diffractive profiles corresponding to powers p1, p2 and p3, the powers being different than one another and each power being a positive power less than about 1.25D, and each of the diffractive profiles having step heights causing a phase delay, relative to aqueous fluid, of 0.6 to 1.2 times 2π for 546 nm light, the combined profile defined by the function : z = max diffractive profile p 1 , diffractive profile p 2 , diffractive profile p 3 , where p3 > p2 > p1.
A segmentation method for determining pleura boundaries of a lung, comprising: acquiring image data from an imaging device; generating a set of two-dimensional slice images based on the acquired image data; determining , by a processor, a seed voxel in the set of 2D slice images as the intersection of the slice images of the set; applying , by the processor, a region growing process to a first slice image from the set of 2D slice images starting with a pixel corresponding to the seed voxel using a threshold value; generating, by the processor, a set of binarized 2D slice images based on the region grown from the pixel corresponding to the seed voxel; filtering out , by the processor, connected components of the lung in each slice image of the set of binarized 2D slice images; and identifying , by the processor, the pleural boundaries of the lung based on each of the filtered slice images of the set of binarized 2D slice images. acquiring image data from an imaging device; generating a set of two-dimensional slice images based on the acquired image data; determining , by a processor, a seed voxel in the set of 2D slice images as the intersection of the slice images of the set; applying , by the processor, a region growing process to a first slice image from the set of 2D slice images starting with a pixel corresponding to the seed voxel using a threshold value; generating, by the processor, a set of binarized 2D slice images based on the region grown from the pixel corresponding to the seed voxel; filtering out , by the processor, connected components of the lung in each slice image of the set of binarized 2D slice images; and identifying , by the processor, the pleural boundaries of the lung based on each of the filtered slice images of the set of binarized 2D slice images.
A device structure, comprising: a substrate ; a plurality of layers formed over the substrate , a first layer of the plurality of layers bounding one or more cavities formed within the structure between the substrate and the plurality of layers; and a plurality of micro electromechanical devices disposed over the substrate and within each of the one or more cavities ; wherein each of the plurality of micro electromechanical devices comprises a cantilever moveable between an up state and a down state; a pull up electrode adapted to pull up the cantilever to the up state within at least one of the one or more cavities and coupled with the first layer above the plurality of micro electromechanical devices; a via connection from the substrate to one or more layers disposed over the one or more cavities ; wherein the one or more cavities and plurality of micro electromechanical devices are embedded within a complementary metal oxide semiconductor chip; and wherein a first device of the plurality of micro electromechanical devices has a different design with different mechanical characteristics than a second device of the plurality of micro electromechanical devices. a substrate ; a plurality of layers formed over the substrate , a first layer of the plurality of layers bounding one or more cavities formed within the structure between the substrate and the plurality of layers; and a plurality of micro electromechanical devices disposed over the substrate and within each of the one or more cavities ; wherein each of the plurality of micro electromechanical devices comprises a cantilever moveable between an up state and a down state; a pull up electrode adapted to pull up the cantilever to the up state within at least one of the one or more cavities and coupled with the first layer above the plurality of micro electromechanical devices; a via connection from the substrate to one or more layers disposed over the one or more cavities ; wherein the one or more cavities and plurality of micro electromechanical devices are embedded within a complementary metal oxide semiconductor chip; and wherein a first device of the plurality of micro electromechanical devices has a different design with different mechanical characteristics than a second device of the plurality of micro electromechanical devices.
A packet loss processing method, comprising: obtaining , by a first node, a first forwarding label of a first packet, wherein the first packet is a discarded packet; determining , by the first node based on the first forwarding label, that the first node does not have a label switch path, LSP, corresponding to the first forwarding label; and sending , by the first node, a first message to a second node, wherein the first message comprises the first forwarding label, and the first message is used to indicate that the first node does not have the LSP corresponding to the first forwarding label, wherein the method is characterised in that the sending , by the first node, a first message to a second node comprises: determining, by the first node, an inbound interface corresponding to the first packet, wherein the determining comprises: parsing the first packet at a forwarding layer of the first node to obtain the inbound interface, and sending the inbound interface to a protocol layer of the first node; and sending, by the first node based on the inbound interface, the first message to the second node corresponding to the inbound interface. obtaining , by a first node, a first forwarding label of a first packet, wherein the first packet is a discarded packet; determining , by the first node based on the first forwarding label, that the first node does not have a label switch path, LSP, corresponding to the first forwarding label; and sending , by the first node, a first message to a second node, wherein the first message comprises the first forwarding label, and the first message is used to indicate that the first node does not have the LSP corresponding to the first forwarding label, wherein the method is characterised in that the sending , by the first node, a first message to a second node comprises: determining, by the first node, an inbound interface corresponding to the first packet, wherein the determining comprises: parsing the first packet at a forwarding layer of the first node to obtain the inbound interface, and sending the inbound interface to a protocol layer of the first node; and sending, by the first node based on the inbound interface, the first message to the second node corresponding to the inbound interface. determining, by the first node, an inbound interface corresponding to the first packet, wherein the determining comprises: parsing the first packet at a forwarding layer of the first node to obtain the inbound interface, and sending the inbound interface to a protocol layer of the first node; and parsing the first packet at a forwarding layer of the first node to obtain the inbound interface, and sending the inbound interface to a protocol layer of the first node; and sending, by the first node based on the inbound interface, the first message to the second node corresponding to the inbound interface.
A method of controlling a clothes treating apparatus including: a container configured to accommodate clothes therein; a duct forming a passage configured to circulate air inside the container therethrough; a fan provided in the duct; a refrigerant pipe forming a refrigerant circulation passage; an evaporator configured to evaporate refrigerant by exchanging heat with air; a condenser configured to condense the refrigerant by exchanging heat with air passed through the evaporator ; a compressor configured to compress the refrigerant discharged from the evaporator and transferring the compressed refrigerant to the condenser ; and an expansion valve configured to open and close the refrigerant pipe, wherein the compressor includes a compression unit configured to make a rotating or a reciprocating motion inside the compressor and wherein the method comprising: a circulation step (S21) of circulating air by operating the fan ; a heat exchange step (S23) of opening the refrigerant pipe by controlling the expansion valve , and circulating the refrigerant by operating the compressor ; a circulation termination step (S41) of terminating the operation of the fan , if a dryness level of clothes stored in the container has reached a predetermined reference dryness level or if a progress time of the heat exchange step has reached a predetermined reference time; and a retrieval step (S43) of closing the refrigerant pipe by controlling the expansion valve , and retrieving the refrigerant and lubricant from the refrigerant pipe to the compressor by operating the compressor , wherein when the compression unit is configured to make a rotating motion inside the compressor , a number of revolutions of the compression unit is set to be less in the retrieval step than in the heat exchange step and wherein when the compression unit is configured to make a reciprocating motion inside the compressor , a reciprocating cycle of the compression unit is set to be longer in the retrieval step than in the heat exchange step. a circulation step (S21) of circulating air by operating the fan ; a heat exchange step (S23) of opening the refrigerant pipe by controlling the expansion valve , and circulating the refrigerant by operating the compressor ; a circulation termination step (S41) of terminating the operation of the fan , if a dryness level of clothes stored in the container has reached a predetermined reference dryness level or if a progress time of the heat exchange step has reached a predetermined reference time; and a retrieval step (S43) of closing the refrigerant pipe by controlling the expansion valve , and retrieving the refrigerant and lubricant from the refrigerant pipe to the compressor by operating the compressor , wherein when the compression unit is configured to make a rotating motion inside the compressor , a number of revolutions of the compression unit is set to be less in the retrieval step than in the heat exchange step and wherein when the compression unit is configured to make a reciprocating motion inside the compressor , a reciprocating cycle of the compression unit is set to be longer in the retrieval step than in the heat exchange step.
A method for resource configuration performed by a terminal device, comprising: transmitting first information to a network device, wherein the first information comprises capability information, the capability information is for indicating a capability in simultaneous transmission and reception on multiple carriers, the multiple carriers comprises a first-type carrier and a second-type carrier, the first-type carrier is configured to transmit data on a Sidelink, SL, and the second-type carrier is configured to transmit data on at least one of an Uplink, UL, a Downlink, DL, and the SL; the method characterized in that it further comprises: receiving second information from the network device, wherein the second information is for indicating a first transmission resource, allocated by the network device, for the first-type carrier and the second-type carrier and for indicating a valid time of the first transmission resource; determining a second transmission resource for aggregated data transmission on the multiple carriers based on the first transmission resource according to a Channel Busy Ratio, CBR, of each of the multiple carriers; and transmitting data on the second transmission resource within the valid time of the first transmission resource. transmitting first information to a network device, wherein the first information comprises capability information, the capability information is for indicating a capability in simultaneous transmission and reception on multiple carriers, the multiple carriers comprises a first-type carrier and a second-type carrier, the first-type carrier is configured to transmit data on a Sidelink, SL, and the second-type carrier is configured to transmit data on at least one of an Uplink, UL, a Downlink, DL, and the SL; the method characterized in that it further comprises: receiving second information from the network device, wherein the second information is for indicating a first transmission resource, allocated by the network device, for the first-type carrier and the second-type carrier and for indicating a valid time of the first transmission resource; determining a second transmission resource for aggregated data transmission on the multiple carriers based on the first transmission resource according to a Channel Busy Ratio, CBR, of each of the multiple carriers; and transmitting data on the second transmission resource within the valid time of the first transmission resource. receiving second information from the network device, wherein the second information is for indicating a first transmission resource, allocated by the network device, for the first-type carrier and the second-type carrier and for indicating a valid time of the first transmission resource; determining a second transmission resource for aggregated data transmission on the multiple carriers based on the first transmission resource according to a Channel Busy Ratio, CBR, of each of the multiple carriers; and transmitting data on the second transmission resource within the valid time of the first transmission resource.
A dishwashing machine comprising: a controller ; a pump for pumping water to a spray arm assembly of the dishwashing machine , the spray arm assembly comprising a spray arm having one or more spray holes for spraying a washing load with water , wherein the controller is configured to monitor the power consumption of the pump ; characterized in that the spray arm assembly comprising an aperture which is constructed and arranged to be in an open state or a closed state dependent upon a rotational position of the spray arm , water from the pump being able to exit the aperture of the spray arm assembly when the aperture is in the open state, a power consumption of the pump being dependent at least in part on whether the aperture is in the open state or the closed state; and the controller configured to monitor the power consumption of the pump so as to determine rotational information of the spray arm . a controller ; a pump for pumping water to a spray arm assembly of the dishwashing machine , the spray arm assembly comprising a spray arm having one or more spray holes for spraying a washing load with water , wherein the controller is configured to monitor the power consumption of the pump ; characterized in that the spray arm assembly comprising an aperture which is constructed and arranged to be in an open state or a closed state dependent upon a rotational position of the spray arm , water from the pump being able to exit the aperture of the spray arm assembly when the aperture is in the open state, a power consumption of the pump being dependent at least in part on whether the aperture is in the open state or the closed state; and the controller configured to monitor the power consumption of the pump so as to determine rotational information of the spray arm .
Articulation for an orthosis having an upper part and a foot stirrup , which are connected to one another via a swivel joint with an axis of rotation so as to be pivotable relative to one another, whereby it is possible for the foot stirrup to be acted upon dorsally and/or plantarly on both sides of the swivel joint by a spring-elastic functional element (20, 20', 20", 20'", 20"") accommodated in/from a receiving element , characterized in that the receiving element can be detachably fastened to the upper part via an attachment section of the receiving element extending from a dorsal side to a plantar side , and vice versa, transversely to a longitudinal axis of the upper part and comprises at least one, in particular two, receiving section(s) arranged on the attachment section for receiving the functional element(s) (20, 20', 20", 20'", 20"") laterally of the upper part .
An abnormality detection apparatus for detecting an abnormality that occurs in a wheel assembly (FL, FR, RL, RR), the abnormality detection apparatus comprising: a signal obtaining unit configured to sequentially obtain signals indicating a rotation speed of the wheel assembly (FL, FR, RL, RR), as pulses having a rise; a first index calculation unit configured to calculate a first index indicating a temporal variation of the rise for each of the pulses corresponding to one rotation of the wheel assembly (FL, FR, RL, RR); and a spectrum calculation unit configured to calculate a frequency spectrum of rotational orders from a first order to an mth order (m≥1) of the first index by performing frequency analysis on the first index calculated for each of the pulses, characterized by a standardization unit configured to standardize a gain for each of the rotational orders of the frequency spectrum, using a mean value and a standard deviation of the gain for each rotational order when there is no abnormality; and a second index calculation unit configured to calculate a second index for determining whether there is an abnormality, based on the standardized gain. a signal obtaining unit configured to sequentially obtain signals indicating a rotation speed of the wheel assembly (FL, FR, RL, RR), as pulses having a rise; a first index calculation unit configured to calculate a first index indicating a temporal variation of the rise for each of the pulses corresponding to one rotation of the wheel assembly (FL, FR, RL, RR); and a spectrum calculation unit configured to calculate a frequency spectrum of rotational orders from a first order to an mth order (m≥1) of the first index by performing frequency analysis on the first index calculated for each of the pulses, characterized by a standardization unit configured to standardize a gain for each of the rotational orders of the frequency spectrum, using a mean value and a standard deviation of the gain for each rotational order when there is no abnormality; and a second index calculation unit configured to calculate a second index for determining whether there is an abnormality, based on the standardized gain.
A control system (200;300) for a power plant , said control system (200; 300) comprising: a temperature sensor configured to be coupled to the power plant and to measure a surface temperature of a steam turbine rotor , the surface temperature a function of exhaust gasses from a heat source of the power plant used to heat steam to a target steam temperature; and a controller coupled to said temperature sensor , said controller configured to: determine a feedback steam turbine rotor stress based on the steam turbine rotor surface temperature and a process model for steam turbine rotor stress dynamics; compute a target steam turbine rotor stress based on the feedback steam turbine rotor stress and a reference steam turbine rotor stress; and compute a target steam temperature for controlling the heat source and the exhaust gas temperature based on the target steam turbine rotor stress and an inverse process model for the steam turbine rotor stress dynamics. a temperature sensor configured to be coupled to the power plant and to measure a surface temperature of a steam turbine rotor , the surface temperature a function of exhaust gasses from a heat source of the power plant used to heat steam to a target steam temperature; and a controller coupled to said temperature sensor , said controller configured to: determine a feedback steam turbine rotor stress based on the steam turbine rotor surface temperature and a process model for steam turbine rotor stress dynamics; compute a target steam turbine rotor stress based on the feedback steam turbine rotor stress and a reference steam turbine rotor stress; and compute a target steam temperature for controlling the heat source and the exhaust gas temperature based on the target steam turbine rotor stress and an inverse process model for the steam turbine rotor stress dynamics. determine a feedback steam turbine rotor stress based on the steam turbine rotor surface temperature and a process model for steam turbine rotor stress dynamics; compute a target steam turbine rotor stress based on the feedback steam turbine rotor stress and a reference steam turbine rotor stress; and compute a target steam temperature for controlling the heat source and the exhaust gas temperature based on the target steam turbine rotor stress and an inverse process model for the steam turbine rotor stress dynamics.