mhurhangee/patent-ind-claim-en huggingface dataset:
A simulation surgical camera scope comprising: a handle ; an elongate shaft having a proximal end coupled to the handle and a distal end comprising a sensor mount and a lens mount , the lens mount having a proximal portion having a pocket therein and at least one pin hole positioned next to the pocket ; a lens disposed within the lens mount ; and an image sensor disposed within the pocket of the lens mount and between the lens mount and the sensor mount , the image sensor having a distal face facing the distal end of the elongate shaft , the sensor mount having a first pin hole corresponding to the at least one pin hole of the lens mount with the at least one pin hole of the lens mount being aligned by a first pin with the first pin hole of the sensor mount , and the sensor mount having a second pin hole transverse to the longitudinal axis of the elongate shaft and aligned with an opening in the elongate shaft by a second pin inserted into the second pin hole to prevent rotation of the sensor mount within the elongate shaft. a handle ; an elongate shaft having a proximal end coupled to the handle and a distal end comprising a sensor mount and a lens mount , the lens mount having a proximal portion having a pocket therein and at least one pin hole positioned next to the pocket ; a lens disposed within the lens mount ; and an image sensor disposed within the pocket of the lens mount and between the lens mount and the sensor mount , the image sensor having a distal face facing the distal end of the elongate shaft , the sensor mount having a first pin hole corresponding to the at least one pin hole of the lens mount with the at least one pin hole of the lens mount being aligned by a first pin with the first pin hole of the sensor mount , and the sensor mount having a second pin hole transverse to the longitudinal axis of the elongate shaft and aligned with an opening in the elongate shaft by a second pin inserted into the second pin hole to prevent rotation of the sensor mount within the elongate shaft.
Measuring signal device for a physical variable, comprising: a sensor connection for providing the physical variable in order to obtain a measurement value ; a processor , which is configured to assign a handling instruction to the measurement value for electronically handling the measurement value , wherein the processor is further configured to encode the measurement value together with the handling instruction into a graphically displayable code ; and a display , which is configured to graphically display the graphically displayable code , wherein the measuring signal device is configured to periodically capture the physical variable and wherein the display is configured to update the displaying of the graphically displayable code with each capturing of the physical variable, wherein the measuring signal device is configured to record a plurality of physical variables and to process the recorded plurality of physical variables in order to obtain the measurement value , wherein the recorded plurality of physical variables is multiplied, is summed and/or is processed using a Fourier Transformation. a sensor connection for providing the physical variable in order to obtain a measurement value ; a processor , which is configured to assign a handling instruction to the measurement value for electronically handling the measurement value , wherein the processor is further configured to encode the measurement value together with the handling instruction into a graphically displayable code ; and a display , which is configured to graphically display the graphically displayable code , wherein the measuring signal device is configured to periodically capture the physical variable and wherein the display is configured to update the displaying of the graphically displayable code with each capturing of the physical variable, wherein the measuring signal device is configured to record a plurality of physical variables and to process the recorded plurality of physical variables in order to obtain the measurement value , wherein the recorded plurality of physical variables is multiplied, is summed and/or is processed using a Fourier Transformation.
An endcapped polycarbonate comprising thioether carbonyl endcaps of the formula wherein L is a C 1-12 aliphatic or aromatic linking group, and R is a C 1-20 alkyl, C 6-18 aryl, or C 7-24 arylalkylene.
A file generation apparatus comprising: a file generation unit configured to generate a Media Presentation Description file of MPEG-DASH for describing a quality file, wherein the quality file is storing quality information representative of qualities of a plurality of depth-related images, the quality information being divided into a plurality of tracks or subsamples; the quality file further is storing information that associates each of the plurality of tracks or subsamples with a level; the depth-related images comprise depth images or occlusion images; and the Media Presentation Description file comprises an adaptation set describing the quality file and a correspondence relationship between the levels and representations of the depth-related images. a file generation unit configured to generate a Media Presentation Description file of MPEG-DASH for describing a quality file, wherein the quality file is storing quality information representative of qualities of a plurality of depth-related images, the quality information being divided into a plurality of tracks or subsamples; the quality file further is storing information that associates each of the plurality of tracks or subsamples with a level; the depth-related images comprise depth images or occlusion images; and the Media Presentation Description file comprises an adaptation set describing the quality file and a correspondence relationship between the levels and representations of the depth-related images.
A method of selecting a treatment for a subject who has a colorectal cancer, the method comprising: performing next generation sequencing on genomic DNA from a biological sample obtained from the colorectal cancer, said biological sample comprising cells, to determine a copy number for each of the following groups of genes: (a) Group 2 comprising all 8 of MYC, EP300, U2AF1, ASXL1, MAML2, CNTRL, WRN, and CDX2; (b) Group 6 comprising all 5 of BCL9, PBX1, PRRX1, INHBA, and YWHAE; (c) Group 7 comprising all 15 of BCL9, PBX1, GNAS, LHFPL6, CASP8, ASXL1, FH, CRKL, MLF1, TRRAP, AKT3, ACKR3, MSI2, PCM1, and MNX1; (d) Group 8 comprising all 45 of BX1, GNAS, AURKA, CASP8, ASXL1, CRKL, MLF1, GAS7, MN1, SOX10, TCL1A, LMO1, BRD3, SMARCA4, PER1, PAX7, SBDS, SEPT5, PDGFB, AKT2, TERT, KEAP1, ETV6, TOP1, TLX3, COX6C, NFIB, ARFRP1, ARID1A, MAP2K4, NFKBIA, WWTR1, ZNF217, IL2, NSD3, CREB1, BRIP1, SDC4, EWSR1, FLT3, FLT1, FAS, CCNE1, RUNX1T1, and EZR; and (e) Group 9 comprising all 11 of BCL9, PBX1, PRRX1, INHBA, YWHAE, GNAS, LHFPL6, FCRL4, BIRC3, AURKA, and HOXA11; applying a machine learning classification model of multiple machine learning classification models to the copy numbers obtained for each of Group 2, Group 6, Group 7, Group 8, and Group 9; obtaining output data generated by each machine learning classification model which indicates whether the subject is likely to benefit from treatment with 5-fluorouracil/leucovorin combined with oxaliplatin (FOLFOX); and selecting either FOLFOX or an alternative treatment as a candidate treatment for the subject based on the obtained output data from each of the multiple machine learning classification models. (a) Group 2 comprising all 8 of MYC, EP300, U2AF1, ASXL1, MAML2, CNTRL, WRN, and CDX2; (b) Group 6 comprising all 5 of BCL9, PBX1, PRRX1, INHBA, and YWHAE; (c) Group 7 comprising all 15 of BCL9, PBX1, GNAS, LHFPL6, CASP8, ASXL1, FH, CRKL, MLF1, TRRAP, AKT3, ACKR3, MSI2, PCM1, and MNX1; (d) Group 8 comprising all 45 of BX1, GNAS, AURKA, CASP8, ASXL1, CRKL, MLF1, GAS7, MN1, SOX10, TCL1A, LMO1, BRD3, SMARCA4, PER1, PAX7, SBDS, SEPT5, PDGFB, AKT2, TERT, KEAP1, ETV6, TOP1, TLX3, COX6C, NFIB, ARFRP1, ARID1A, MAP2K4, NFKBIA, WWTR1, ZNF217, IL2, NSD3, CREB1, BRIP1, SDC4, EWSR1, FLT3, FLT1, FAS, CCNE1, RUNX1T1, and EZR; and (e) Group 9 comprising all 11 of BCL9, PBX1, PRRX1, INHBA, YWHAE, GNAS, LHFPL6, FCRL4, BIRC3, AURKA, and HOXA11; applying a machine learning classification model of multiple machine learning classification models to the copy numbers obtained for each of Group 2, Group 6, Group 7, Group 8, and Group 9; obtaining output data generated by each machine learning classification model which indicates whether the subject is likely to benefit from treatment with 5-fluorouracil/leucovorin combined with oxaliplatin (FOLFOX); and selecting either FOLFOX or an alternative treatment as a candidate treatment for the subject based on the obtained output data from each of the multiple machine learning classification models.
Compact exhaust gas treatment system for exhaust gases of a combustion engine of a vehicle comprising an inlet of the exhaust gases, an outlet of the exhaust gases, a first catalytic converter and a second catalytic converter , a filter unit , a mixing chamber for evaporating liquid spray and subsequent mixing into the exhaust gases, characterised in that the exhaust gas treatment system comprises a first structure and a second structure being in fluid communication and defining a flow path of the exhaust gases, the second structure being supported by the first structure , the first structure comprising the first catalytic converter downstream the mixing chamber , said first catalytic converter having a fluid connection to the outlet of exhaust gases, the second structure comprising a filter unit housing removably connected to the first structure and to an inlet module by filter unit housing fixing means , and the inlet module removably connected to the first structure and the filter unit housing , said second structure defining a longitudinal axis , said filter unit housing comprising the filter unit , and said inlet module comprising the second catalytic converter and having a fluid connection to the inlet of exhaust gases, the filter unit housing and/or the inlet module being configured to allow its removal from the exhaust gas treatment system . an inlet of the exhaust gases, an outlet of the exhaust gases, a first catalytic converter and a second catalytic converter , a filter unit , a mixing chamber for evaporating liquid spray and subsequent mixing into the exhaust gases, characterised in that the exhaust gas treatment system comprises a first structure and a second structure being in fluid communication and defining a flow path of the exhaust gases, the second structure being supported by the first structure , the first structure comprising the first catalytic converter downstream the mixing chamber , said first catalytic converter having a fluid connection to the outlet of exhaust gases, the second structure comprising a filter unit housing removably connected to the first structure and to an inlet module by filter unit housing fixing means , and the inlet module removably connected to the first structure and the filter unit housing , said second structure defining a longitudinal axis , said filter unit housing comprising the filter unit , and said inlet module comprising the second catalytic converter and having a fluid connection to the inlet of exhaust gases, the filter unit housing and/or the inlet module being configured to allow its removal from the exhaust gas treatment system . said second structure defining a longitudinal axis , said filter unit housing comprising the filter unit , and said inlet module comprising the second catalytic converter and having a fluid connection to the inlet of exhaust gases, the filter unit housing and/or the inlet module being configured to allow its removal from the exhaust gas treatment system .
A method of generating control channel messages in a wireless communication system , the method comprising: determining logical resources reserved for a shared signaling channel; allocating logical control channel resources to the shared signaling channel, wherein the logical control channel resources are selected from the logical resources reserved for the shared signaling channel and are distinct from logical traffic channel resources available for data transmission, wherein a variable amount of logical resources is allocated to the shared signaling channel, and wherein any logical resources not used for the shared signaling channel are available for allocation to data transmission; assigning the logical resources used for the shared signaling channel to physical channel resources to obtain assigned physical channel resources for the shared signaling channel, wherein the assigned physical channel resources correspond to combinations of sub-carriers and symbols; generating at least one message; encoding the at least one message to generate at least one message symbol; and transmitting the at least one message on at least a portion of the assigned physical channel resources. determining logical resources reserved for a shared signaling channel; allocating logical control channel resources to the shared signaling channel, wherein the logical control channel resources are selected from the logical resources reserved for the shared signaling channel and are distinct from logical traffic channel resources available for data transmission, wherein a variable amount of logical resources is allocated to the shared signaling channel, and wherein any logical resources not used for the shared signaling channel are available for allocation to data transmission; assigning the logical resources used for the shared signaling channel to physical channel resources to obtain assigned physical channel resources for the shared signaling channel, wherein the assigned physical channel resources correspond to combinations of sub-carriers and symbols; generating at least one message; encoding the at least one message to generate at least one message symbol; and transmitting the at least one message on at least a portion of the assigned physical channel resources.
A heater for heating an e-liquid, the heater comprising a cylindrical core , and three metal wires secured to the core, wherein the core comprises three through holes , and the three metal wires are disposed in the three through holes, respectively, characterized in that the cylindrical core is made of quartz, mica, or jade.
A process comprising the steps of: - providing a machine tool in which a working space is defined, the machine tool comprising a safety door for closing the working space or alternatively allowing access to the working space ; - machining a profiled bar on the machine tool in an operating position (P1) inside the working space , the working space being closed by the safety door ; - opening the safety door after the profiled bar has been machined, for unloading the machined profiled bar from the machine tool , wherein, before opening the safety door , there is provided a step of moving the machined profiled bar to a standby position (P2) distinct from the operating position (P1), the standby position (P2) being defined inside the working space , and wherein, after the step of opening the safety door , there is provided a step of loading a profiled bar to be machined in the operating position (P1). - providing a machine tool in which a working space is defined, the machine tool comprising a safety door for closing the working space or alternatively allowing access to the working space ; - machining a profiled bar on the machine tool in an operating position (P1) inside the working space , the working space being closed by the safety door ; - opening the safety door after the profiled bar has been machined, for unloading the machined profiled bar from the machine tool ,
A vessel comprising a drive-off prevention controller , a dynamic positioning system, and a propulsion system , the drive off prevention controller being configured to communicate with the dynamic positioning system, - wherein the dynamic positioning system is configured: ∘ to determine a position of the vessel relative to a target position and ∘ to determine an adjustment to the control of a propulsion system of the vessel based on the determined position of the vessel relative to the target position; and - wherein the drive-off prevention controller is configured to ∘ determine whether one or more indicative conditions are met; and ∘ when the one or more indicative conditions are met, selectively apply the adjustment to the control of the propulsion system determined by the dynamic positioning system, ∘ when the one or more indicative conditions are not met, not apply the adjustment to the control of the propulsion system determined by the dynamic positioning system, characterized in that at least one of the one or more indicative conditions depends on weather or environmental data; and that the drive-off prevention controller is configured to receive and determine the weather or environmental data from a database, remote server or weather service. - wherein the dynamic positioning system is configured: ∘ to determine a position of the vessel relative to a target position and ∘ to determine an adjustment to the control of a propulsion system of the vessel based on the determined position of the vessel relative to the target position; and ∘ to determine a position of the vessel relative to a target position and ∘ to determine an adjustment to the control of a propulsion system of the vessel based on the determined position of the vessel relative to the target position; and - wherein the drive-off prevention controller is configured to ∘ determine whether one or more indicative conditions are met; and ∘ when the one or more indicative conditions are met, selectively apply the adjustment to the control of the propulsion system determined by the dynamic positioning system, ∘ when the one or more indicative conditions are not met, not apply the adjustment to the control of the propulsion system determined by the dynamic positioning system, ∘ determine whether one or more indicative conditions are met; and ∘ when the one or more indicative conditions are met, selectively apply the adjustment to the control of the propulsion system determined by the dynamic positioning system, ∘ when the one or more indicative conditions are not met, not apply the adjustment to the control of the propulsion system determined by the dynamic positioning system, characterized in that at least one of the one or more indicative conditions depends on weather or environmental data; and that the drive-off prevention controller is configured to receive and determine the weather or environmental data from a database, remote server or weather service.
System for reducing load and frequency variations in the power distribution of a dynamically positioned vessel, the system comprising a consumer load control being connected to at least one power generator and at least one thruster , the consumer load control being adapted to monitor the available power in the system from said at least one power generator and the power consumption from said at least one thruster as well as other power consumers in the system, and a dynamic positioning (DP) unit monitoring the position of the vessel and including a thrust allocation logic calculating the required thruster capacity for maintaining a predetermined position, characterised in that the DP unit is adapted to define an acceptable window for variations in said position relative to the predetermined position and communicate this to said consumer load control , and said consumer load control is adapted to adjust the power provided to said thruster to compensate for load variations on other consumers in the power distribution in order to reduce total load variations depending on the available power and on the position of the vessel relative to said window defined by the dynamic positioning (DP) unit, said consumer load control being further adapted to communicate thruster load reduction to said thrust allocation logic , and the thrust allocation logic being adapted to convert the thruster load reduction to a feed forward force, said feed forward force being used for calculating the required thruster capacity.
A method for controlling the charge of an energy storage device configured to store power from a renewable energy source, the method comprising: determining an estimated energy production prediction for the renewable energy source from a present time to a target time, wherein the target time is a time by which the energy storage device is desired to reach a top of charge (TOC) energy level when being charged by the renewable energy source ; determining an available amount of energy for storage at the energy storage device when the energy storage device is charged from the estimated energy production of the renewable energy source at a first charge rate from the present time until the target time; comparing the available amount of energy to an energy storage capacity of the energy storage device ; controlling a present charge rate for the energy storage device to be the first charge rate when the available amount of energy is less than the energy storage capacity of the energy storage device ; and controlling a present charge rate for the energy storage device to be a second charge rate when the available amount of energy is greater than the energy storage capacity of the energy storage device , wherein the second charge rate is less than the first charge rate; characterised in that the target time is before a planned dispatch time for the energy storage device and is selected to limit the total time between the target time and dispatch time during which the energy storage device remains at the top of charge (TOC) energy level. determining an estimated energy production prediction for the renewable energy source from a present time to a target time, wherein the target time is a time by which the energy storage device is desired to reach a top of charge (TOC) energy level when being charged by the renewable energy source ; determining an available amount of energy for storage at the energy storage device when the energy storage device is charged from the estimated energy production of the renewable energy source at a first charge rate from the present time until the target time; comparing the available amount of energy to an energy storage capacity of the energy storage device ; controlling a present charge rate for the energy storage device to be the first charge rate when the available amount of energy is less than the energy storage capacity of the energy storage device ; and controlling a present charge rate for the energy storage device to be a second charge rate when the available amount of energy is greater than the energy storage capacity of the energy storage device , wherein the second charge rate is less than the first charge rate; characterised in that the target time is before a planned dispatch time for the energy storage device and is selected to limit the total time between the target time and dispatch time during which the energy storage device remains at the top of charge (TOC) energy level.