mhurhangee/patent-ind-claim-en huggingface dataset:
A reaction analysis device that specifies a reaction state of a reaction fluid flowing through a flow reactor , the reaction analysis device comprising: a processor configured to specify the reaction state of the reaction fluid based on a reaction parameter indicating the reaction state of the reaction fluid which is obtained from a temperature distribution of the reaction fluid immediately after a reaction starts in a flow direction of the reaction fluid, characterized in that the processor is configured to acquire the reaction parameter in which a difference between an actual measurement result obtained by measuring a temperature of the reaction fluid and an estimated temperature distribution obtained by estimating the temperature distribution of the reaction fluid immediately after the reaction starts is within a predetermined value, and the processor is configured to specify the reaction state of the reaction fluid based on the acquired reaction parameter, the estimated temperature distribution is obtained by a governing equation for estimating the temperature distribution of the reaction fluid immediately after the reaction starts, and the governing equation has a first reaction parameter relevant to a peak value of the temperature distribution of the reaction fluid immediately after the reaction starts and a second reaction parameter relevant to a peak position of the temperature distribution of the reaction fluid immediately after the reaction starts. a processor configured to specify the reaction state of the reaction fluid based on a reaction parameter indicating the reaction state of the reaction fluid which is obtained from a temperature distribution of the reaction fluid immediately after a reaction starts in a flow direction of the reaction fluid, characterized in that the processor is configured to acquire the reaction parameter in which a difference between an actual measurement result obtained by measuring a temperature of the reaction fluid and an estimated temperature distribution obtained by estimating the temperature distribution of the reaction fluid immediately after the reaction starts is within a predetermined value, and the processor is configured to specify the reaction state of the reaction fluid based on the acquired reaction parameter, the estimated temperature distribution is obtained by a governing equation for estimating the temperature distribution of the reaction fluid immediately after the reaction starts, and the governing equation has a first reaction parameter relevant to a peak value of the temperature distribution of the reaction fluid immediately after the reaction starts and a second reaction parameter relevant to a peak position of the temperature distribution of the reaction fluid immediately after the reaction starts.
A catheter stabilization system comprising: a catheter having a steerable distal end ; a stabilizer coupled or coupleable to the catheter at a position that is proximal to the steerable distal end ; and wherein the stabilizer is movable radially outward relative to the catheter to stabilize the catheter during flexing of the steerable distal end of the catheter ; wherein the stabilizer comprises a shape-set mesh material ; and wherein the shape-set mesh material curls back towards the catheter upon being pushed out of the catheter . a catheter having a steerable distal end ; a stabilizer coupled or coupleable to the catheter at a position that is proximal to the steerable distal end ; and wherein the stabilizer is movable radially outward relative to the catheter to stabilize the catheter during flexing of the steerable distal end of the catheter ; wherein the stabilizer comprises a shape-set mesh material ; and wherein the shape-set mesh material curls back towards the catheter upon being pushed out of the catheter .
A composition comprising: 35% to 85% by weight water; an ester of a polyol and a diacid; and a polypeptide, wherein the ester comprises a glycerol-sebacic acid ester compound. 35% to 85% by weight water; an ester of a polyol and a diacid; and a polypeptide, wherein the ester comprises a glycerol-sebacic acid ester compound.
A power device comprising: an input configured to be coupled to a power source and to receive input power from the power source ; power circuitry coupled to the input ; a power output coupled to the power circuitry ; a network module configured to be coupled to a network ; and a controller coupled to the power output , the power circuitry and the network module , the controller configured to: operate the power circuitry to provide output power to the power output derived from the input power; attempt to communicate with a primary cloud service including at least one server via a network access device ; in response to a determination that communication with the primary cloud service has failed, attempt to communicate with at least one third-party domain name server via the network access device ; and in response to a determination that communication with the primary cloud service and the at least one third-party domain name server has failed, identify that the network has failed. an input configured to be coupled to a power source and to receive input power from the power source ; power circuitry coupled to the input ; a power output coupled to the power circuitry ; a network module configured to be coupled to a network ; and a controller coupled to the power output , the power circuitry and the network module , the controller configured to: operate the power circuitry to provide output power to the power output derived from the input power; attempt to communicate with a primary cloud service including at least one server via a network access device ; in response to a determination that communication with the primary cloud service has failed, attempt to communicate with at least one third-party domain name server via the network access device ; and in response to a determination that communication with the primary cloud service and the at least one third-party domain name server has failed, identify that the network has failed. operate the power circuitry to provide output power to the power output derived from the input power; attempt to communicate with a primary cloud service including at least one server via a network access device ; in response to a determination that communication with the primary cloud service has failed, attempt to communicate with at least one third-party domain name server via the network access device ; and in response to a determination that communication with the primary cloud service and the at least one third-party domain name server has failed, identify that the network has failed.
An intraocular lens assembly configured to be inserted and affixed in an eye with a crystalline lens , comprising: an intraocular lens comprising an optic for producing a preselected optical effect, the optic comprising an outer peripheral edge; a haptic extending from the outer peripheral edge of the optic , the haptic comprising a proximal end, a distal end, and a riser section therebetween, the proximal end at the outer peripheral edge of the optic at a different height than the distal end; and characterized in further comprising a helical-shaped coil fastener comprising a wire comprising an end portion with a pointed tip , the helical-shaped coil fastener configured to affix the haptic to the eye by insertion through the distal end of the haptic and rotatable penetration into an anterior side of an iris to compress a portion of the haptic between a top portion of the helical-shaped coil fastener and the anterior side of the iris , wherein the wire forms a helix with a helical pitch defining a central cylindrical aperture. an intraocular lens comprising an optic for producing a preselected optical effect, the optic comprising an outer peripheral edge; a haptic extending from the outer peripheral edge of the optic , the haptic comprising a proximal end, a distal end, and a riser section therebetween, the proximal end at the outer peripheral edge of the optic at a different height than the distal end; and characterized in further comprising a helical-shaped coil fastener comprising a wire comprising an end portion with a pointed tip , the helical-shaped coil fastener configured to affix the haptic to the eye by insertion through the distal end of the haptic and rotatable penetration into an anterior side of an iris to compress a portion of the haptic between a top portion of the helical-shaped coil fastener and the anterior side of the iris , wherein the wire forms a helix with a helical pitch defining a central cylindrical aperture.
A system for driver execution , comprising: a computer comprising a processor and a memory having computer-executable instructions stored thereupon which, when executed by the processor, cause the computing device to: load the driver in a first domain, wherein the driver controls an associated device , and solely manages a plug and play (PnP) state and/or a power state of a device associated with the driver, the driver comprising a first portion of driver code; in response to a request from the driver, load a driver companion in a second domain different than the first domain, the second domain comprising a secure environment, the driver companion communicating with the associated device , said driver companion comprising a second portion of the driver code; manage communications between the driver and the driver companion including a request from the driver to the driver companion to perform a task; execute the first portion of driver code by the driver; execute the second portion of driver code by the driver companion in response to the request to perform the particular task; and in response to a request from the driver, unload the driver companion . load the driver in a first domain, wherein the driver controls an associated device , and solely manages a plug and play (PnP) state and/or a power state of a device associated with the driver, the driver comprising a first portion of driver code; in response to a request from the driver, load a driver companion in a second domain different than the first domain, the second domain comprising a secure environment, the driver companion communicating with the associated device , said driver companion comprising a second portion of the driver code; manage communications between the driver and the driver companion including a request from the driver to the driver companion to perform a task; execute the first portion of driver code by the driver; execute the second portion of driver code by the driver companion in response to the request to perform the particular task; and in response to a request from the driver, unload the driver companion .
A ballast device for providing a load current to a lighting module, in particular an LED lighting module , the ballast device comprising a current source circuit configured to generate a current (I OUT ), a pulse width modulation circuit (3.1) configured to provide a pulse width modulated load current (I LED ) based on the current (I OUT ) via an output capacitor (C OUT ) to the lighting module, and a control circuit for controlling the pulse width modulation circuit (3.1) based on a feedback signal (ADC_DATA) representing the load current (I LED ), and characterized in that the current source circuit is a self-resonance power electronic circuit configured to operate at a high switching frequency, the pulse width modulation circuit (3.1) is configured to superimpose the generated current (I OUT ) with a pulse width modulation signal with a pulse frequency smaller than the high switching frequency, and that a feedback loop circuit is configured to sample a measurement signal (V ADC ) representing the load current (I LED ) in synchronisation with a pulse width modulation period of the pulse width modulation signal for generating the feedback signal (ADC_DATA). a current source circuit configured to generate a current (I OUT ), a pulse width modulation circuit (3.1) configured to provide a pulse width modulated load current (I LED ) based on the current (I OUT ) via an output capacitor (C OUT ) to the lighting module, and a control circuit for controlling the pulse width modulation circuit (3.1) based on a feedback signal (ADC_DATA) representing the load current (I LED ), and that the current source circuit is a self-resonance power electronic circuit configured to operate at a high switching frequency, the pulse width modulation circuit (3.1) is configured to superimpose the generated current (I OUT ) with a pulse width modulation signal with a pulse frequency smaller than the high switching frequency, and that a feedback loop circuit is configured to sample a measurement signal (V ADC ) representing the load current (I LED ) in synchronisation with a pulse width modulation period of the pulse width modulation signal for generating the feedback signal (ADC_DATA).
A computer implemented method of detecting objects, extracting depth information of the objects and identifying micro-vibrations of the objects using a unified imaging device , comprising: using at least one processor for: receiving a plurality of images of a scene captured by an imaging sensor of the unified imaging device comprising a light source adapted to project on the scene a predefined structured light pattern constructed of a plurality of diffused light elements; classifying at least one object present in the scene by analyzing at least one of the plurality of images; extracting depth data of the at least one object by analyzing a position of at least one of the plurality of diffused light elements reflected from the at least one object; identifying at least one micro-vibration of the at least one object by analyzing a change in a speckle pattern of at least one of the plurality of reflected diffused light elements in at least some consecutive images of the plurality of images; and outputting the classification, the depth data and data of the at least one micro-vibration which are derived from the analyses of images captured by the imaging sensor and are registered in a common coordinate system; wherein the change in the speckle pattern is identified by applying a speckle pattern translation to the speckle pattern to determine an angular velocity of at least one point in the speckle pattern with respect to at least one adjacent point in the speckle pattern, the angular velocity is indicative of the at least one micro-vibration. receiving a plurality of images of a scene captured by an imaging sensor of the unified imaging device comprising a light source adapted to project on the scene a predefined structured light pattern constructed of a plurality of diffused light elements; classifying at least one object present in the scene by analyzing at least one of the plurality of images; extracting depth data of the at least one object by analyzing a position of at least one of the plurality of diffused light elements reflected from the at least one object; identifying at least one micro-vibration of the at least one object by analyzing a change in a speckle pattern of at least one of the plurality of reflected diffused light elements in at least some consecutive images of the plurality of images; and outputting the classification, the depth data and data of the at least one micro-vibration which are derived from the analyses of images captured by the imaging sensor and are registered in a common coordinate system; wherein the change in the speckle pattern is identified by applying a speckle pattern translation to the speckle pattern to determine an angular velocity of at least one point in the speckle pattern with respect to at least one adjacent point in the speckle pattern, the angular velocity is indicative of the at least one micro-vibration.
A method for transmitting downlink control information, DCI, in a wireless communication system, the method comprising: determining (S300) a size of a first DCI format used for sidelink semi-persistent scheduling; and increasing (S310) a size of a second DCI format used for sidelink dynamic scheduling, to be equal to the size of the first DCI format, wherein the first DCI format and the second DCI format are DCI formats sharing a search space, and wherein the second DCI format is transmitted in the search space in which DCI format 0 used for scheduling of a physical uplink shared channel, PUSCH, is not present. determining (S300) a size of a first DCI format used for sidelink semi-persistent scheduling; and increasing (S310) a size of a second DCI format used for sidelink dynamic scheduling, to be equal to the size of the first DCI format, wherein the first DCI format and the second DCI format are DCI formats sharing a search space, and wherein the second DCI format is transmitted in the search space in which DCI format 0 used for scheduling of a physical uplink shared channel, PUSCH, is not present.
A process for the fixed bed oxidation of methanol to formaldehyde wherein the catalytic bed comprises at least two layers having different catalytic activity, of which the layer of lower activity is comprised within the part of the bed from which the reactant gas mixture enters, and its activity is calibrated to obtain in the hot spot zone of the layer a maximum hot spot temperature comprised in the range from 360°C to 410°C, wherein the maximum hot spot temperature of the lower activity layer is from 30°C to 90°C higher than the maximum hot spot temperature of the greater activity layer; wherein said 30°C to 90°C temperatures determine methanol conversion higher than 96% by mols, and wherein the catalyst used in the layers of different activity has the formula Fe 2 (MoO 4 ) 3 /MoO 3 , wherein the Mo/Fe ratio is from 1 to 6, wherein the layer of lower catalytic activity is formed of a mixture of pure catalyst and inert material or is obtained by acting on the surface area (BET) of the catalyst, and the layer of higher activity is formed of pure catalyst.
An implantable medical device 100 comprising a sealed housing 105 enclosing an electronic circuitry 245; a plurality of feedthrough conductors 110, each conductor of the plurality of feedthrough conductors 110 comprising a proximal end part 250 connected to the enclosed electronic circuitry and a distal end part 115 available external to the housing 105; and a plurality of spatially separated feedthrough connectors 120 configured to provide terminal connections, away from the plurality of feedthrough conductors 110, for a plurality of electrical wires 125, wherein each connector of the plurality of spatially separated feedthrough connectors 120 comprises a first end section 130 adapted to be connected with the distal end part 115 of a feedthrough conductor of the plurality of feedthrough conductors 110 and a second end section 135 adapted to be connected with one of the plurality of electrical wires 125, characterized in that the plurality of spatially separated connectors 120, when positioned onto a non-conductive unit 160, are configured such that a first distance D ft between first end sections 130 of at least one pair of neighboring feedthrough connectors 140 is less than a second distance D ph between second end sections 135 of the at least one pair of neighboring feedthrough connectors 140. a sealed housing 105 enclosing an electronic circuitry 245; a plurality of feedthrough conductors 110, each conductor of the plurality of feedthrough conductors 110 comprising a proximal end part 250 connected to the enclosed electronic circuitry and a distal end part 115 available external to the housing 105; and a plurality of spatially separated feedthrough connectors 120 configured to provide terminal connections, away from the plurality of feedthrough conductors 110, for a plurality of electrical wires 125, wherein each connector of the plurality of spatially separated feedthrough connectors 120 comprises a first end section 130 adapted to be connected with the distal end part 115 of a feedthrough conductor of the plurality of feedthrough conductors 110 and a second end section 135 adapted to be connected with one of the plurality of electrical wires 125, characterized in that the plurality of spatially separated connectors 120, when positioned onto a non-conductive unit 160, are configured such that a first distance D ft between first end sections 130 of at least one pair of neighboring feedthrough connectors 140 is less than a second distance D ph between second end sections 135 of the at least one pair of neighboring feedthrough connectors 140.
A system comprising: a cache framework maintaining a data structure that identifies a plurality of caches (C1, C2) in a cache tier order, the cache framework coupled to a requesting entity that makes a request for data, the cache framework configured to attempt to return the data in response to the request, including to read the data structure to access each cache (C1, C2) according to the cache tier order until the data is obtained from a cache or to return an indication that at least part of the data was not obtained from the plurality of caches (C1, C2), wherein the data structure is an array that identifies the plurality of caches (C1, C2) as an ordered set, and wherein the array or information in the array is dynamically variable to dynamically change the ordered set to a different set of one or more caches, to a different cache order, or to both a different set of one or more caches and to a different cache order in response to receiving a request to change the array. a cache framework maintaining a data structure that identifies a plurality of caches (C1, C2) in a cache tier order, the cache framework coupled to a requesting entity that makes a request for data, the cache framework configured to attempt to return the data in response to the request, including to read the data structure to access each cache (C1, C2) according to the cache tier order until the data is obtained from a cache or to return an indication that at least part of the data was not obtained from the plurality of caches (C1, C2), wherein the data structure is an array that identifies the plurality of caches (C1, C2) as an ordered set, and wherein the array or information in the array is dynamically variable to dynamically change the ordered set to a different set of one or more caches, to a different cache order, or to both a different set of one or more caches and to a different cache order in response to receiving a request to change the array.
Mobile classifying or screening device having a chassis and a frame arranged on the chassis for a classifying apparatus having at least one screening surface (S) for separating a fed screening material (SG) into at least two screening fractions, wherein the chassis has a longitudinal direction oriented in the direction of travel and a transverse direction oriented perpendicular to the longitudinal direction, and the frame comprises two lateral frame parts (12.1, 12.2), each formed by longitudinal bars extending in the longitudinal direction, connected by webs extending transversely to the longitudinal bars and comprising an uppermost longitudinal bar and a lowermost longitudinal bar , and at least two transverse bars extending in the transverse direction and connecting the two lateral frame parts (12.1, 12.2) to each other in the region of their respective lowermost longitudinal bars , characterized in that the classifying apparatus is mounted on the longitudinal bars and a storage and metering unit , which is arranged adjacent to the classifying apparatus and mounted on the longitudinal bars , is provided for the screening material (SG) and is designed as a trough-shaped delivery channel with a substantially horizontal delivery direction (AR) for the screening material (SG) from the delivery channel onto the adjacent screening surface (S).