mhurhangee/patent-ind-claim-en huggingface dataset:
A sensing device, comprising: a piezoelectric resonator ; a sensing sensor , configured to sense a substance to be sensed based on a change of an oscillation frequency of the piezoelectric resonator , wherein the substance to be sensed which is a gas is attached to the piezoelectric resonator , and the substance to be sensed is detached by changing a temperature of the piezoelectric resonator ; an oscillator circuit , configured to oscillate the piezoelectric resonator ; a base , including a base main body and a lid portion at one side of the base , wherein the base main body is provided with a depressed portion configured for housing the oscillator circuit , and the lid portion is configured for covering the depressed portion , the base is configured to support the piezoelectric resonator at another side of the base and take the oscillation frequency to an outside of the sensing sensor ; a cooling mechanism ; a connection portion , being disposed at the one side of the base and connected to the cooling mechanism configured for cooling the base from the one side of the base ; and a temperature changing unit , being interposed between the piezoelectric resonator and the base , and the temperature changing unit being configured to cool and heat the piezoelectric resonator and transfer a heat radiated for cooling the piezoelectric resonator from the another side of the base to the one side of the base . a piezoelectric resonator ; a sensing sensor , configured to sense a substance to be sensed based on a change of an oscillation frequency of the piezoelectric resonator , wherein the substance to be sensed which is a gas is attached to the piezoelectric resonator , and the substance to be sensed is detached by changing a temperature of the piezoelectric resonator ; an oscillator circuit , configured to oscillate the piezoelectric resonator ; a base , including a base main body and a lid portion at one side of the base , wherein the base main body is provided with a depressed portion configured for housing the oscillator circuit , and the lid portion is configured for covering the depressed portion , the base is configured to support the piezoelectric resonator at another side of the base and take the oscillation frequency to an outside of the sensing sensor ; a cooling mechanism ; a connection portion , being disposed at the one side of the base and connected to the cooling mechanism configured for cooling the base from the one side of the base ; and a temperature changing unit , being interposed between the piezoelectric resonator and the base , and the temperature changing unit being configured to cool and heat the piezoelectric resonator and transfer a heat radiated for cooling the piezoelectric resonator from the another side of the base to the one side of the base .
A method for constructing a dental component , namely a restoration , a bite guard or an impression tray, wherein a dental situation is measured and a 3D model of the dental situation is generated, characterised in that a convolutional neural network (CNN) is applied to the 3D model of the dental situation and/or an initial 3D model of the component and a fully constructed 3D model of the component , namely the restoration , the bite guard or the impression tray, is automatically generated, the neural network being trained on the basis of a training data set, and the training data record containing initial 3D models of components and manual changes of these initial 3D models in the construction of the 3D model of at least one user.
Apparatus for securing a load relative to a surface , wherein the surface has at least one opening , wherein the apparatus has: - a lashing stop , - a lashing anchor with at least one extension , wherein the lashing anchor can be introduced with the at least one extension in an introduction position into the at least one opening of the surface and the at least one extension can be brought by a movement into a securing position in which the extension engages behind the opening of the surface , wherein the apparatus has at least one securing means - which can be introduced into an opening in the surface and/or - can be supported at the surface and which by blocking the movement of the extension prevents unintentional transfer of the at least one extension of the lashing anchor from the securing position into the introduction position, wherein the at least one securing means is mounted pivotably on the lashing anchor, characterised in that at least one securing means is mounted to the lashing anchor by way of a slot arranged on the at least one securing means and/or by way of a slot of the lashing anchor . - a lashing stop , - a lashing anchor with at least one extension , wherein the lashing anchor can be introduced with the at least one extension in an introduction position into the at least one opening of the surface and the at least one extension can be brought by a movement into a securing position in which the extension engages behind the opening of the surface , wherein the apparatus has at least one securing means - which can be introduced into an opening in the surface and/or - can be supported at the surface and which by blocking the movement of the extension prevents unintentional transfer of the at least one extension of the lashing anchor from the securing position into the introduction position, wherein the at least one securing means is mounted pivotably on the lashing anchor, characterised in that at least one securing means is mounted to the lashing anchor by way of a slot arranged on the at least one securing means and/or by way of a slot of the lashing anchor .
A bracket configured to attach a structure to a wall inside a wash tub of a dishwasher , wherein said bracket is arranged to be attached to said structure , wherein said bracket comprises a first protrusion (9.1) and at least a second protrusion (9.2), wherein said first protrusion (9.1) and said at least second protrusion (9.2) are arranged to attach said bracket , and said attached structure , to said wall by extending through a respective aperture (11.1, 11.2) in said wall , characterized in that the bracket is formed by a coherent piece of polymeric material, wherein the bracket comprises a portion (19.1) adjacent to said first protrusion (9.1), said portion (19.1) comprising a ring-shaped ridge surrounding an interface between a main body of the bracket and said first protrusion (9.1), and wherein said portion (19.1) is arranged to form a watertight seal around an aperture (11.1) in said wall when said bracket is attached to said wall .
A method performed by hardware processing circuitry, comprising: obtaining , from a plurality of network devices included in a networked computer system, for each of the plurality of network devices, one or more operational parameter values and first log data of the plurality of network devices; providing the operational parameter values and the first log data to a machine learning model system; obtaining , from the machine learning model system, and based on the providing of the operational parameter values and the log data, a recommended log data level of each of the plurality of network devices; setting a log data level of each of the plurality of network devices based on the recommended log data level for the respective network device; obtaining , from each of the plurality of network devices, second log data based on the set log data level of the respective network device; providing , to the machine learning model system, the second log data; obtaining , from the machine learning model system, and based on the second log data, an indication of a cause of a degradation of the networked computer system identifying a remedial action based on the cause; and applying the remedial action to the networked computer system. obtaining , from a plurality of network devices included in a networked computer system, for each of the plurality of network devices, one or more operational parameter values and first log data of the plurality of network devices; providing the operational parameter values and the first log data to a machine learning model system; obtaining , from the machine learning model system, and based on the providing of the operational parameter values and the log data, a recommended log data level of each of the plurality of network devices; setting a log data level of each of the plurality of network devices based on the recommended log data level for the respective network device; obtaining , from each of the plurality of network devices, second log data based on the set log data level of the respective network device; providing , to the machine learning model system, the second log data; obtaining , from the machine learning model system, and based on the second log data, an indication of a cause of a degradation of the networked computer system identifying a remedial action based on the cause; and applying the remedial action to the networked computer system.
A method of estimating three-dimensional, 3D, hand poses in images, comprising: receiving , by a computer, hand image data, wherein the hand image data is an RGB image containing a hand pose; generating , by the computer, a first depth map corresponding to the received hand image data; generating , by the computer, one or more hand joint heat maps based on the received hand image data; characterised in that the method further comprises: estimating , by the computer, joint locations based on the generated one or more hand joint heat maps; reconstructing , by the computer, a second depth map based on the estimated joint locations and the first depth map; and estimating , by the computer, the hand pose from the received hand image data, the first depth map and the second depth map. receiving , by a computer, hand image data, wherein the hand image data is an RGB image containing a hand pose; generating , by the computer, a first depth map corresponding to the received hand image data; generating , by the computer, one or more hand joint heat maps based on the received hand image data; characterised in that the method further comprises: estimating , by the computer, joint locations based on the generated one or more hand joint heat maps; reconstructing , by the computer, a second depth map based on the estimated joint locations and the first depth map; and estimating , by the computer, the hand pose from the received hand image data, the first depth map and the second depth map. estimating , by the computer, joint locations based on the generated one or more hand joint heat maps; reconstructing , by the computer, a second depth map based on the estimated joint locations and the first depth map; and estimating , by the computer, the hand pose from the received hand image data, the first depth map and the second depth map.
A system for insuring efficiency of a serial link, wherein the system comprises: a fabric switch having a plurality of upstream ports and comprising a fabric controller and a memory ; a host server including a BIOS and a baseboard management controller , the host server having a plurality of ports coupled to a plurality of serial link ports via cables to form lanes of the serial link; the memory being accessible by the baseboard management controller ; and wherein an inter-integrated circuit (I2C) bus between the baseboard management controller of the host server and the fabric controller allows both the baseboard management controller and the fabric controller to share the memory; wherein the baseboard management controller reads an expected speed and width of the serial link from the memory; when the host server powers on, the BIOS gets the expected speed and width from the baseboard management controller and determines an actual speed and width of the serial link, and the baseboard management controller sends an error message if the actual speed or actual width do not match the expected speed or expected width; wherein the expected speed and width is stored in the memory by the fabric controller . a fabric switch having a plurality of upstream ports and comprising a fabric controller and a memory ; a host server including a BIOS and a baseboard management controller , the host server having a plurality of ports coupled to a plurality of serial link ports via cables to form lanes of the serial link; the memory being accessible by the baseboard management controller ; and wherein an inter-integrated circuit (I2C) bus between the baseboard management controller of the host server and the fabric controller allows both the baseboard management controller and the fabric controller to share the memory; wherein the baseboard management controller reads an expected speed and width of the serial link from the memory; when the host server powers on, the BIOS gets the expected speed and width from the baseboard management controller and determines an actual speed and width of the serial link, and the baseboard management controller sends an error message if the actual speed or actual width do not match the expected speed or expected width; wherein the expected speed and width is stored in the memory by the fabric controller .
A product , comprising: a frame configured to retain visceral pleura tissue thereon; and the visceral pleura tissue coupled to the frame ; wherein when the product is positioned within a mammalian luminal organ, fluid native to the mammalian luminal organ may pass through a lumen defined within the product . a frame configured to retain visceral pleura tissue thereon; and the visceral pleura tissue coupled to the frame ; wherein when the product is positioned within a mammalian luminal organ, fluid native to the mammalian luminal organ may pass through a lumen defined within the product .
A method for preparing a polyolefin comprising polymerizing an olefin monomer in the presence of a metallocene catalyst comprising a metallocene compound, a cocatalyst and a compound of the following chemical formula 1: in the Chemical Formula 1, R 1 to R 10 are each independently hydrogen, a linear or branched alkyl or alkoxy having 1 to 10 carbon atoms or an alkoxyalkyl having 8 to 10 carbon atoms, R 11 is a linear or branched alkylene group having 1 to 10 carbon atoms, or halogen, R 12 and R 13 are each independently a linear or branched alkyl group having 1 to 10 carbon atoms, or halogen, and X is a halogen atom, wherein at least one of R 1 to R 10 in the chemical formula 1 is an alkoxyalkyl having 8 to 10 carbon atoms, and the metallocene catalyst is a metallocene supported catalyst obtainable by supporting the cocatalyst on a support, supporting the metallocene compound thereon, and then supporting the compound of chemical formula 1. in the Chemical Formula 1, R 1 to R 10 are each independently hydrogen, a linear or branched alkyl or alkoxy having 1 to 10 carbon atoms or an alkoxyalkyl having 8 to 10 carbon atoms, R 11 is a linear or branched alkylene group having 1 to 10 carbon atoms, or halogen, R 12 and R 13 are each independently a linear or branched alkyl group having 1 to 10 carbon atoms, or halogen, and X is a halogen atom, wherein at least one of R 1 to R 10 in the chemical formula 1 is an alkoxyalkyl having 8 to 10 carbon atoms, and the metallocene catalyst is a metallocene supported catalyst obtainable by supporting the cocatalyst on a support, supporting the metallocene compound thereon, and then supporting the compound of chemical formula 1.
A method for creating a subscription profile for a subscriber entity , the method being performed by a subscription provisioning server , the method comprising: obtaining (S106), from the subscriber entity , a request for download of the subscription profile, the request comprising capability information of the subscriber entity ; creating (S112) the subscription profile based on the capability information as obtained from the subscriber entity ; and characterized in that the method further comprises: verifying (S108) that the subscriber entity passes an eligibility check before, or as part of, creating the profile, wherein the eligibility check is based on the capability information of the subscriber entity and pertains to whether the subscriber entity will support the subscription profile or not. obtaining (S106), from the subscriber entity , a request for download of the subscription profile, the request comprising capability information of the subscriber entity ; creating (S112) the subscription profile based on the capability information as obtained from the subscriber entity ; and characterized in that the method further comprises: verifying (S108) that the subscriber entity passes an eligibility check before, or as part of, creating the profile, wherein the eligibility check is based on the capability information of the subscriber entity and pertains to whether the subscriber entity will support the subscription profile or not.
A microfluidic chip , comprising: a microfluidic channel (126, 226-1, 226-2, 326); an outlet (133, 233-1, 233-2) at an end of the microfluidic channel (133, 233-1, 233-2), whereby the outlet is a nozzle; the nozzle having an air interface in that it is exposed to air; and an impedance sensor (131, 231-1, 231-2, 331) arranged to form an electric field region (EFR) located within the microfluidic channel (126, 226-1, 226-2, 326); the chip being characterized in that : the impedance sensor (131, 231-1, 231-2, 331) is located within a particular proximity to the air interface, whereby the impedance sensor is less than 100 micrometers from the nozzle, the impedance sensor being arranged to determine a stage of a coagulation cascade of a blood sample flowing through the microfluidic channel (126, 226-1, 226-2, 326) to the impedance sensor (131, 231-1, 231-2, 331). a microfluidic channel (126, 226-1, 226-2, 326); an outlet (133, 233-1, 233-2) at an end of the microfluidic channel (133, 233-1, 233-2), whereby the outlet is a nozzle; the nozzle having an air interface in that it is exposed to air; and an impedance sensor (131, 231-1, 231-2, 331) arranged to form an electric field region (EFR) located within the microfluidic channel (126, 226-1, 226-2, 326); the chip being characterized in that : the impedance sensor (131, 231-1, 231-2, 331) is located within a particular proximity to the air interface, whereby the impedance sensor is less than 100 micrometers from the nozzle, the impedance sensor being arranged to determine a stage of a coagulation cascade of a blood sample flowing through the microfluidic channel (126, 226-1, 226-2, 326) to the impedance sensor (131, 231-1, 231-2, 331).
A device for preparing radioactive solutions, in particular radiopharmaceutical solutions, comprising: a movable support block comprising at least two cells capable of accommodating a vial ; a shielded covering , comprising a side wall surrounding the periphery of the support block and an upper wall covering the upper face of the support block , an opening being provided in the upper wall of the covering; a syringe carrier associated with a syringe actuating means configured to displace a syringe substantially vertically in the axis of the opening and to actuate a plunger of said syringe; and characterised by a means for driving the support block configured to selectively displace the support block into positions, referred to as working positions, in which a given cell is aligned with the opening to allow access to said cell from the outside of the covering ; and wherein the support block is configured such that it can be further brought to a position, referred to as closing position, in which the opening is sealed by a shielded element carried by the support block. a movable support block comprising at least two cells capable of accommodating a vial ; a shielded covering , comprising a side wall surrounding the periphery of the support block and an upper wall covering the upper face of the support block , an opening being provided in the upper wall of the covering; a syringe carrier associated with a syringe actuating means configured to displace a syringe substantially vertically in the axis of the opening and to actuate a plunger of said syringe; and characterised by a means for driving the support block configured to selectively displace the support block into positions, referred to as working positions, in which a given cell is aligned with the opening to allow access to said cell from the outside of the covering ; and wherein the support block is configured such that it can be further brought to a position, referred to as closing position, in which the opening is sealed by a shielded element carried by the support block.
A broadband fiber optic tap for efficiently transferring optical energy out of an optical fiber over a broad wavelength range, the tap comprising: an optical fiber containing a core and a cladding ; a first structure formed in the fiber that transfers optical energy from a guided mode to a first unguided mode of said optical fiber ; a second structure , formed in the fiber and situated at a pre-defined distance, Δ, in a direction of optical propagation downstream from said first structure , that transfers optical energy from said first unguided mode back into said guided mode and into a second unguided mode of said optical fiber , said second unguided mode being a higher-order mode than the first unguided mode; and a reflecting surface formed in the cladding of said optical fiber and situated at a pre-defined distance, d, in a direction of optical propagation downstream from said first structure for reflecting optical energy propagating in said cladding out of the side of said fiber , wherein the distance Δ is approximately equal to one-half of an intermodal beat length for said guided mode and said first unguided mode. an optical fiber containing a core and a cladding ; a first structure formed in the fiber that transfers optical energy from a guided mode to a first unguided mode of said optical fiber ; a second structure , formed in the fiber and situated at a pre-defined distance, Δ, in a direction of optical propagation downstream from said first structure , that transfers optical energy from said first unguided mode back into said guided mode and into a second unguided mode of said optical fiber , said second unguided mode being a higher-order mode than the first unguided mode; and a reflecting surface formed in the cladding of said optical fiber and situated at a pre-defined distance, d, in a direction of optical propagation downstream from said first structure for reflecting optical energy propagating in said cladding out of the side of said fiber , wherein the distance Δ is approximately equal to one-half of an intermodal beat length for said guided mode and said first unguided mode.
A terminal comprising: a control section configured to determine a type of a particular search space, based on search space type information indicating a common search space or a user equipment, UE, specific search space; and characterized by , a receiving section configured to monitor, in the particular search space, physical downlink control channel, PDCCH, candidates for one or a plurality of downlink control information, DCI, formats indicated by one or a plurality of parameters indicating the DCI formats, wherein the one or plurality of parameters are included in the search space type information, and the receiving section is configured to monitor PDCCH candidates in a type 1 PDCCH common search space or monitor PDCCH candidates in the UE-specific search space. a control section configured to determine a type of a particular search space, based on search space type information indicating a common search space or a user equipment, UE, specific search space; and characterized by , a receiving section configured to monitor, in the particular search space, physical downlink control channel, PDCCH, candidates for one or a plurality of downlink control information, DCI, formats indicated by one or a plurality of parameters indicating the DCI formats, wherein the one or plurality of parameters are included in the search space type information, and the receiving section is configured to monitor PDCCH candidates in a type 1 PDCCH common search space or monitor PDCCH candidates in the UE-specific search space.