mhurhangee/patent-ind-claim-en huggingface dataset:
A storage system comprising: a stack of first memory die configured to store data; and a logic die including an interface circuit configured to receive multiple memory requests from an external host using a first command bus, a second command bus, and a data bus, and a controller configured to interface with the stack of first memory die to store and retrieve the data from the stack of first memory die ; the storage device being characterized in that the logic die includes a second memory having a faster access time than devices of the stack of first memory die ; and wherein the interface circuit is configured to directly access the second memory in response to a first memory request of the multiple of memory requests, wherein multiple selected bits of the first command bus are configured to provide at least a first command identifier upon a first transition of a clock signal of the first command bus, based on the state of each of the multiple selected bits; and wherein the controller is configured to directly access the second memory device in response to the first command identifier. a stack of first memory die configured to store data; and a logic die including an interface circuit configured to receive multiple memory requests from an external host using a first command bus, a second command bus, and a data bus, and a controller configured to interface with the stack of first memory die to store and retrieve the data from the stack of first memory die ; the storage device being characterized in that the logic die includes a second memory having a faster access time than devices of the stack of first memory die ; and wherein the interface circuit is configured to directly access the second memory in response to a first memory request of the multiple of memory requests, wherein multiple selected bits of the first command bus are configured to provide at least a first command identifier upon a first transition of a clock signal of the first command bus, based on the state of each of the multiple selected bits; and wherein the controller is configured to directly access the second memory device in response to the first command identifier.
A tactile sensation providing device , comprising: a panel ; an actuator ; and a conversion unit that engages with the panel and the actuator and that, in response to displacement of the actuator , converts a displacement direction and a displacement amount of the actuator to a different displacement direction and a different displacement amount and displaces the panel according thereto, wherein the displacement direction of the panel is a thickness direction of the panel , and the displacement direction of the actuator intersects with the displacement direction of the panel; and further comprising a housing including an upper housing and a lower housing that are joined by a joining portion having elasticity, wherein the panel is supported by the upper housing and engaged while applying pressure to the conversion unit by elastic force of the joining portion , and the actuator and the conversion unit are supported by the lower housing and engaged while the conversion unit applies pressure to the actuator . a panel ; an actuator ; and a conversion unit that engages with the panel and the actuator and that, in response to displacement of the actuator , converts a displacement direction and a displacement amount of the actuator to a different displacement direction and a different displacement amount and displaces the panel according thereto, wherein the displacement direction of the panel is a thickness direction of the panel , and the displacement direction of the actuator intersects with the displacement direction of the panel; and further comprising a housing including an upper housing and a lower housing that are joined by a joining portion having elasticity, wherein the panel is supported by the upper housing and engaged while applying pressure to the conversion unit by elastic force of the joining portion , and the actuator and the conversion unit are supported by the lower housing and engaged while the conversion unit applies pressure to the actuator .
A paint discharging nozzle designed for discharging paint supplied at a predetermined pressure, the paint discharging nozzle comprising: a housing having a nozzle hole through which paint is discharged; a paint chamber configured to supply paint to the nozzle hole; a needle valve disposed in the paint chamber , the needle valve configured to close or open the nozzle hole and having a tip end covered by a synthetic resin layer and a tip end surface oriented toward the nozzle hole being formed in a recess shape so as not to interfere with the nozzle hole , the entire tip end surface being covered by the synthetic resin layer ; and a driving mechanism configured to drive the needle valve to advance toward and retract from the nozzle hole. a housing having a nozzle hole through which paint is discharged; a paint chamber configured to supply paint to the nozzle hole; a needle valve disposed in the paint chamber , the needle valve configured to close or open the nozzle hole and having a tip end covered by a synthetic resin layer and a tip end surface oriented toward the nozzle hole being formed in a recess shape so as not to interfere with the nozzle hole , the entire tip end surface being covered by the synthetic resin layer ; and a driving mechanism configured to drive the needle valve to advance toward and retract from the nozzle hole.
A method for optimizing the configuration of multisite transcranial current stimulation comprising - providing an electric field characteristic target map on the brain's cortex that comprises desired values for the electrical field on the cortex surface to modulate neuronal function, said target map having either single or multiple cortical targets characterised by - providing a weight map on the cortical surface prioritizing important areas in said target map for the purposes of optimization; - said target map and said weight map being obtained from brain activity data or neuroimaging data acquired by means of a brain monitoring technology; - calculating, based on electric field modelling with said target and weight maps, optimal currents and optimal number and locations for a plurality of electrodes to hit said target map, wherein said calculation of optimal electrode number and locations is performed with a genetic algorithm with cross-over and mutation functions, where a binary DNA string specifies a montage of electrode number and locations. - providing an electric field characteristic target map on the brain's cortex that comprises desired values for the electrical field on the cortex surface to modulate neuronal function, said target map having either single or multiple cortical targets characterised by - providing a weight map on the cortical surface prioritizing important areas in said target map for the purposes of optimization; - said target map and said weight map being obtained from brain activity data or neuroimaging data acquired by means of a brain monitoring technology; - calculating, based on electric field modelling with said target and weight maps, optimal currents and optimal number and locations for a plurality of electrodes to hit said target map, wherein said calculation of optimal electrode number and locations is performed with a genetic algorithm with cross-over and mutation functions, where a binary DNA string specifies a montage of electrode number and locations.
A system for inspection of rotating wind turbine blade, comprising: a camera ; a rotatable means designed to controllably rotate camera along axis, which is not camera's lens axis of rotational symmetry; at least one laser distance sensor, or dynamic vision sensors and a computer system ; the camera , the rotatable means and the at least one laser distance sensor, or the dynamic vision sensors operably connected with the computer system ; wherein the camera is adapted to be mounted on the rotatable means ; laser distance sensors', or the dynamic vision sensors' optical axis is directed at a set distance from the camera's optical axis; wherein the computer system is configured: (i) to receive a signal from the laser distance sensor, or the laser distance sensors, or the dynamic vision sensors ; (ii) to determine camera's activation time based on the signal received from the laser distance sensor, or the laser distance sensors, or the dynamic vision sensors and a pre-set adjustable delay time; (iii) to activate the camera to acquire an image of a blade area , which needs to be inspected; (iv) to calculate linear speed of the blade area , which needs to be inspected, on the basis of the signals received from the laser distance sensor, or the laser distance sensors, or the dynamic vision sensors ; and (v) to adjust the camera's pre-set activation delay time based on the calculated linear speed of the blade area which needs to be inspected. (i) to receive a signal from the laser distance sensor, or the laser distance sensors, or the dynamic vision sensors ; (ii) to determine camera's activation time based on the signal received from the laser distance sensor, or the laser distance sensors, or the dynamic vision sensors and a pre-set adjustable delay time; (iii) to activate the camera to acquire an image of a blade area , which needs to be inspected; (iv) to calculate linear speed of the blade area , which needs to be inspected, on the basis of the signals received from the laser distance sensor, or the laser distance sensors, or the dynamic vision sensors ; and (v) to adjust the camera's pre-set activation delay time based on the calculated linear speed of the blade area which needs to be inspected.
A pharmaceutical composition comprising: (i) formoterol fumarate dihydrate; (ii) budesonide; (iii) a surfactant component comprising at least one surfactant compound; and (iv) a propellant component comprising at least 90 weight % 1,1-difluoroethane (R-152a). (i) formoterol fumarate dihydrate; (ii) budesonide; (iii) a surfactant component comprising at least one surfactant compound; and (iv) a propellant component comprising at least 90 weight % 1,1-difluoroethane (R-152a).
A mobile platform having a main body with a first side and a second side which together define a lateral direction with respect to the main body, and one or more leg arrangements , each leg arrangement comprising: a first leg mounted for 360 degree rotation in a first plane on the main body at a first rotary joint on the first side of the mobile platform, the first leg connected to be driven by a first actuator controlled by a processor and the first rotary joint having a first rotation axis; a second leg mounted for 360 degree rotation in a second plane on the main body at the first rotary joint, the second leg connected to be driven by a second actuator controlled by the processor; and the processor being configured to instruct the first actuator to rotate the first leg and the second actuator to rotate the second leg; characterised in that : the mobile platform further comprises a swing arm mounted on the main body, the leg arrangement being mounted on the swing arm. a first leg mounted for 360 degree rotation in a first plane on the main body at a first rotary joint on the first side of the mobile platform, the first leg connected to be driven by a first actuator controlled by a processor and the first rotary joint having a first rotation axis; a second leg mounted for 360 degree rotation in a second plane on the main body at the first rotary joint, the second leg connected to be driven by a second actuator controlled by the processor; and the processor being configured to instruct the first actuator to rotate the first leg and the second actuator to rotate the second leg; characterised in that : the mobile platform further comprises a swing arm mounted on the main body, the leg arrangement being mounted on the swing arm.
A prosthetic valve ring assembly , comprising: an outer tube comprising a plurality of windows; and a plurality of anchors positioned inside the outer tube and about a perimeter of the outer tube , wherein the plurality of anchors are configured to be emitted outward from the plurality of windows to anchor the prosthetic valve ring assembly to a patient's annulus tissue; characterised in that the plurality of anchors are configured to be emitted in different directions, and wherein a first portion of the plurality of anchors is configured to be emitted to a ventricular side of the annulus tissue, and a second portion of the plurality of anchors is configured to be emitted to an atrial side of the annulus tissue. an outer tube comprising a plurality of windows; and a plurality of anchors positioned inside the outer tube and about a perimeter of the outer tube , wherein the plurality of anchors are configured to be emitted outward from the plurality of windows to anchor the prosthetic valve ring assembly to a patient's annulus tissue; characterised in that the plurality of anchors are configured to be emitted in different directions, and wherein a first portion of the plurality of anchors is configured to be emitted to a ventricular side of the annulus tissue, and a second portion of the plurality of anchors is configured to be emitted to an atrial side of the annulus tissue.
An extension assembly for operably connecting an end effector to an electrosurgical instrument, the extension assembly comprising: an outer sleeve ; an inner flexible band assembly slidably disposed within the outer sleeve for performing a cutting function; an outer flexible band assembly disposed within the outer sleeve and outward of the inner flexible band assembly, the outer flexible band assembly being slidable relative to the inner flexible band assembly for performing a stapling function; a frame assembly disposed within the outer sleeve for supporting the inner and outer flexible band assemblies; and a trocar assembly disposed within the outer sleeve and including a trocar member for performing a third function. an outer sleeve ; an inner flexible band assembly slidably disposed within the outer sleeve for performing a cutting function; an outer flexible band assembly disposed within the outer sleeve and outward of the inner flexible band assembly, the outer flexible band assembly being slidable relative to the inner flexible band assembly for performing a stapling function; a frame assembly disposed within the outer sleeve for supporting the inner and outer flexible band assemblies; and a trocar assembly disposed within the outer sleeve and including a trocar member for performing a third function.
An integrally blow-moulded bag-in-container having a neck region and a mouth suitable for dispensing a liquid contained in a collapsible inner bag through the mouth of the bag-in-container, by squeezing the collapsible inner bag upon control of the pressure in a region between the collapsible inner bag and an outer container , said bag-in-container comprising: • an outer layer made of a polymer and forming the outer container, • an inner layer made of a polymer and forming the collapsible inner bag, contained in the outer container, • the outer layer and the inner layer being connected to one another by an interface over substantially the whole of an inner surface of the outer layer, and • at least one vent fluidly connecting the interface to the atmosphere, characterized in that , the same polymer is in contact on either side of the interface. • an outer layer made of a polymer and forming the outer container, • an inner layer made of a polymer and forming the collapsible inner bag, contained in the outer container, • the outer layer and the inner layer being connected to one another by an interface over substantially the whole of an inner surface of the outer layer, and • at least one vent fluidly connecting the interface to the atmosphere,
A method of manufacturing a lamination body having an integrated exposure hologram comprising the steps of : providing a plurality of substrate layers; superposing the plurality of substrate layers to form a substrate layer stack ; providing an exposure hologram layer ; and performing a pressure-temperature lamination step to join the plurality of substrate layers together to form the lamination body ; wherein the exposure hologram layer is disposed between two substrate layers of the plurality of substrate layers prior to the laminating step such that the two substrate layers of the plurality of substrate layers are directly bonded to each other in a completely circumferential manner around the exposure hologram layer in the laminating step, wherein the exposure hologram layer is bonded to at least one substrate layer of the two substrate layers of the plurality of substrate layers by means of an adhesive , wherein the exposure hologram layer comprises the integrated exposure hologram which is exposed into a photosensitive material of the exposure hologram layer and stored inside the photosensitive material, characterized in that the exposure hologram layer is applied to the one substrate layer of the two substrate layers by means of a winding and/or rolling process. providing a plurality of substrate layers; superposing the plurality of substrate layers to form a substrate layer stack ; providing an exposure hologram layer ; and performing a pressure-temperature lamination step to join the plurality of substrate layers together to form the lamination body ; wherein the exposure hologram layer is disposed between two substrate layers of the plurality of substrate layers prior to the laminating step such that the two substrate layers of the plurality of substrate layers are directly bonded to each other in a completely circumferential manner around the exposure hologram layer in the laminating step, wherein the exposure hologram layer is bonded to at least one substrate layer of the two substrate layers of the plurality of substrate layers by means of an adhesive , wherein the exposure hologram layer comprises the integrated exposure hologram which is exposed into a photosensitive material of the exposure hologram layer and stored inside the photosensitive material, characterized in that the exposure hologram layer is applied to the one substrate layer of the two substrate layers by means of a winding and/or rolling process.
An encoder apparatus for encoding a picture into a data stream , configured to: - subject a transform (T) of a block of the picture to quantization to obtain a quantized transform (T Q ); - determine a zero-quantized portion (N Q ) of the quantized transform (T Q ); - define a second block (C) having coefficients of the transform (T) only in the positions of the zero-quantized portion (N Q ) of the quantized transform (T Q ); - determine at least one noise parameter (g) providing noise information on the transform (T) within second block (C); - signal the quantized transform (T Q ) and the at least one noise parameter , wherein the encoder apparatus is configured to: - divide the second block (C) into a higher-frequency zero-quantized portion and a lower-frequency zero-quantized portion; and - determine the at least one noise parameter by determining a noise colorness parameter (g) on the basis of a quotient between: ∘ a first sum or average of the absolute values of the coefficients of the transform (T) within the higher-frequency zero-quantized portion (H); and ∘ a second sum or average of the absolute values of the coefficients of the transform (T) within the lower-frequency zero-quantized portion, or of the absolute values of the coefficients of the transform (T) within a super block containing the block. - subject a transform (T) of a block of the picture to quantization to obtain a quantized transform (T Q ); - determine a zero-quantized portion (N Q ) of the quantized transform (T Q ); - define a second block (C) having coefficients of the transform (T) only in the positions of the zero-quantized portion (N Q ) of the quantized transform (T Q ); - determine at least one noise parameter (g) providing noise information on the transform (T) within second block (C); - signal the quantized transform (T Q ) and the at least one noise parameter , - divide the second block (C) into a higher-frequency zero-quantized portion and a lower-frequency zero-quantized portion; and - determine the at least one noise parameter by determining a noise colorness parameter (g) on the basis of a quotient between: ∘ a first sum or average of the absolute values of the coefficients of the transform (T) within the higher-frequency zero-quantized portion (H); and ∘ a second sum or average of the absolute values of the coefficients of the transform (T) within the lower-frequency zero-quantized portion, or of the absolute values of the coefficients of the transform (T) within a super block containing the block. ∘ a first sum or average of the absolute values of the coefficients of the transform (T) within the higher-frequency zero-quantized portion (H); and ∘ a second sum or average of the absolute values of the coefficients of the transform (T) within the lower-frequency zero-quantized portion, or of the absolute values of the coefficients of the transform (T) within a super block containing the block.
A system for phased array signal beam tracking, comprising: a phased array transmitter configured to transmit a signal beam at a selected transmit beam angle from a plurality of different transmit beam angles ; and a beam gain angle coding assembly configured to modulate a gain of the signal beam to produce a resulting gain profile of the signal beam, the resulting gain profile comprising offset angle coding that indicates an offset incident angle of the signal beam at a receiving antenna ; a first receiver configured to receive the signal beam; a correlator configured to cross-correlate the resulting gain profile or waveform of the received signal beam against a plurality of angle coded waveforms to determine an offset incident angle of the received signal beam, each angle coded waveform corresponds to a respective one of a plurality of different offset incident angles of an incident signal beam, wherein the offset incident angle of the received signal beam corresponds to an angle coded waveform of the plurality of angle coded waveforms with a highest correlation to the waveform of the received signal beam; a module configured to determine an angle error , wherein the angle error is a difference between an actual angle of incidence of the received signal beam and the offset incident angle of the received signal beam; and a transmitter configured to transmit the angle error to a second receiver associated with the phased array transmitter, the angle error being used to steer the phased array transmitter. a phased array transmitter configured to transmit a signal beam at a selected transmit beam angle from a plurality of different transmit beam angles ; and a beam gain angle coding assembly configured to modulate a gain of the signal beam to produce a resulting gain profile of the signal beam, the resulting gain profile comprising offset angle coding that indicates an offset incident angle of the signal beam at a receiving antenna ; a first receiver configured to receive the signal beam; a correlator configured to cross-correlate the resulting gain profile or waveform of the received signal beam against a plurality of angle coded waveforms to determine an offset incident angle of the received signal beam, each angle coded waveform corresponds to a respective one of a plurality of different offset incident angles of an incident signal beam, wherein the offset incident angle of the received signal beam corresponds to an angle coded waveform of the plurality of angle coded waveforms with a highest correlation to the waveform of the received signal beam; a module configured to determine an angle error , wherein the angle error is a difference between an actual angle of incidence of the received signal beam and the offset incident angle of the received signal beam; and a transmitter configured to transmit the angle error to a second receiver associated with the phased array transmitter, the angle error being used to steer the phased array transmitter.