mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method for an image-assisted medical application, the method comprising: acquiring (S1) a first image of at least one body part of a patient, the first image being captured with an endoscope and being associated with sensor data, the sensor data being indicative of a first position and orientation of the endoscope; detecting (S2) if the first image includes an image of obscuring matter, such that the first image includes an image of a leaking body fluid, debris or smoke from ablation, wherein the image of the obscuring matter obscures the at least one body part, or a portion thereof; determining (S3), upon detecting that the first image includes an image of obscuring matter, a second image based on a sequence of historic images and based on the first position and orientation of the endoscope, wherein the historic images of the sequence of historic images each have image capturing times earlier than the first image; and generating (S4) a virtual image of the at least one body part based on the determined second image. acquiring (S1) a first image of at least one body part of a patient, the first image being captured with an endoscope and being associated with sensor data, the sensor data being indicative of a first position and orientation of the endoscope; detecting (S2) if the first image includes an image of obscuring matter, such that the first image includes an image of a leaking body fluid, debris or smoke from ablation, wherein the image of the obscuring matter obscures the at least one body part, or a portion thereof; determining (S3), upon detecting that the first image includes an image of obscuring matter, a second image based on a sequence of historic images and based on the first position and orientation of the endoscope, wherein the historic images of the sequence of historic images each have image capturing times earlier than the first image; and generating (S4) a virtual image of the at least one body part based on the determined second image.
A terminal comprising: a receiving section configured to receive first control resource set, CORESET, configuration information and second CORESET configuration information included in common configuration information, the configuration information being used for configuring a cell-specific parameter for a downlink control channel; and a control section configured to control a configuration of a first CORESET based on the first CORESET configuration information and a configuration of a second CORESET based on the second CORESET configuration information, wherein the receiving section is configured to receive at least one of system information block, SIB, 1, other system information, OSI, and paging based on a downlink control information that is monitored in the first CORESET, and receive a message for a random access procedure based on downlink control information that is monitored within the second CORESET. a receiving section configured to receive first control resource set, CORESET, configuration information and second CORESET configuration information included in common configuration information, the configuration information being used for configuring a cell-specific parameter for a downlink control channel; and a control section configured to control a configuration of a first CORESET based on the first CORESET configuration information and a configuration of a second CORESET based on the second CORESET configuration information, wherein the receiving section is configured to receive at least one of system information block, SIB, 1, other system information, OSI, and paging based on a downlink control information that is monitored in the first CORESET, and receive a message for a random access procedure based on downlink control information that is monitored within the second CORESET.
A tightening device comprising a belt having a first and a second end , a sealing ring disposed in an annular recess of the belt, and a first and a second tightening lug born by the belt, respectively in the vicinity of the first and the second end of the belt, the tightening lugs being able to be displaced with respect to each other to tighten the belt, the edges of the recess forming wedging steps for the edges of the sealing ring, the first and second ends of the belt having a sealing arrangement (24, 26; 124, 126) which comprises two lateral tabs (28A, 28B; 127A, 128B) formed at the second end, each of these lateral tabs extending, widthwise on the belt, from one edge of the belt (10'A, 10'B) to the recess , in such a way that each lateral tab comprises a part of one of the wedging steps , characterized in that the sealing ring substantially occupies the entire width (LR) of the recess between the wedging steps and in that the sealing arrangement comprises a central tab (24; 124) formed at the first end of the belt and a central notch (26; 126) formed at the second end of the belt and delimited by the lateral tabs (28A, 28B; 128A, 128B), the central tab penetrating in the central notch in the tightened state of the belt.
A molded body for deodorizing solid surfaces and/or the air, characterized in that at least a portion of the surface of the molded body comprises a metal/polymer mixture, the metal/polymer mixture comprising - greater than or equal to 40 wt.% and less than or equal to 80 wt.% of a thermoplastic styrene block copolymer; - greater than or equal to 10 wt.% and less than or equal to 50 wt.% of a polypropylene block copolymer, and - greater than or equal to 5 wt.% and less than or equal to 30 wt.% of a ferriferous metal, the sum of the indicated components of the metal/polymer mixture being at least 80 wt.%. - greater than or equal to 40 wt.% and less than or equal to 80 wt.% of a thermoplastic styrene block copolymer; - greater than or equal to 10 wt.% and less than or equal to 50 wt.% of a polypropylene block copolymer, and - greater than or equal to 5 wt.% and less than or equal to 30 wt.% of a ferriferous metal, the sum of the indicated components of the metal/polymer mixture being at least 80 wt.%.
A method of receiving an intelligent transport system, ITS, message by a V2X communication device, the method comprising: accessing a control channel, CCH; receiving a first ITS message including emergency alert system, EAS, information via the control channel, wherein the first ITS message further includes a rich media information field including information about rich media associated with the EAS information, and wherein the information about the rich media includes transmission type information indicating a transmission type for rich media data and channel information indicating an ITS channel via which the rich media data is transmitted, wherein the transmission type information includes a first transmission type and a second transmission type, wherein the first transmission type represents that the rich media data is transmitted, on the CCH, in the first ITS message, and wherein the second transmission type represents that the rich media data is transmitted, on a service channel, SCH, in a second ITS message, and the second ITS message is processed via a same communication protocol as the first ITS message; and obtaining the rich media data from (i) the first ITS message or (ii) the second ITS message based on (i) the transmission type information and (ii) the channel information. accessing a control channel, CCH; receiving a first ITS message including emergency alert system, EAS, information via the control channel, wherein the first ITS message further includes a rich media information field including information about rich media associated with the EAS information, and wherein the information about the rich media includes transmission type information indicating a transmission type for rich media data and channel information indicating an ITS channel via which the rich media data is transmitted, wherein the transmission type information includes a first transmission type and a second transmission type, wherein the first transmission type represents that the rich media data is transmitted, on the CCH, in the first ITS message, and wherein the second transmission type represents that the rich media data is transmitted, on a service channel, SCH, in a second ITS message, and the second ITS message is processed via a same communication protocol as the first ITS message; and obtaining the rich media data from (i) the first ITS message or (ii) the second ITS message based on (i) the transmission type information and (ii) the channel information.
A data processing device comprising: a plurality of system registers , comprising interrupt handling registers configured to control the handling of an incoming interrupt; processing means configured to execute software at a plurality of execution levels, interrupt controller means configured to route said incoming interrupt to interrupt handling software configured to run at one of said plurality of execution levels; characterised in that the data processing device further comprises: register access control means configured to dynamically control a set of said interrupt handling registers that are configured to be used in performing an access operation in dependence upon said one of said plurality of execution levels, such that said interrupt handling software configured to run at said execution level is permitted to perform said access operation on at least some of said interrupt handling registers for handling said incoming interrupt, and such that said interrupt handling software configured to run at said execution level is prevented from performing said access operation on interrupt handling registers for handling a second incoming interrupt routed to an interrupt handling software run at a more privileged execution level. a plurality of system registers , comprising interrupt handling registers configured to control the handling of an incoming interrupt; processing means configured to execute software at a plurality of execution levels, interrupt controller means configured to route said incoming interrupt to interrupt handling software configured to run at one of said plurality of execution levels; characterised in that the data processing device further comprises: register access control means configured to dynamically control a set of said interrupt handling registers that are configured to be used in performing an access operation in dependence upon said one of said plurality of execution levels, such that said interrupt handling software configured to run at said execution level is permitted to perform said access operation on at least some of said interrupt handling registers for handling said incoming interrupt, and such that said interrupt handling software configured to run at said execution level is prevented from performing said access operation on interrupt handling registers for handling a second incoming interrupt routed to an interrupt handling software run at a more privileged execution level.
An anode plate for a lithium-ion battery, the anode plate comprising: i) a current collector; ii) an anode active material layer located on at least one surface of the current collector; and iii) a lithium-precipitation inhibiting layer located on the anode active material layer, wherein the lithium-precipitation inhibiting layer comprises at least one of following lithium-precipitation inhibiting materials: LiNi x Co y Mn z Fe w O 2 , LiMPO 4 , and Li 4 Ti 5 O 12 , where 0≤x≤1, 0≤y≤1, 0≤z≤1, 0≤w≤1, and x+y+z+w=1, and M is selected from Fe, Co, Ni, Mn and a combination thereof, and a first binder, wherein the lithium-precipitation inhibiting layer contains no conductive material. i) a current collector; ii) an anode active material layer located on at least one surface of the current collector; and iii) a lithium-precipitation inhibiting layer located on the anode active material layer, wherein the lithium-precipitation inhibiting layer comprises at least one of following lithium-precipitation inhibiting materials: LiNi x Co y Mn z Fe w O 2 , LiMPO 4 , and Li 4 Ti 5 O 12 , where 0≤x≤1, 0≤y≤1, 0≤z≤1, 0≤w≤1, and x+y+z+w=1, and M is selected from Fe, Co, Ni, Mn and a combination thereof, and a first binder, wherein the lithium-precipitation inhibiting layer contains no conductive material.
A method for improving performance of a power system that includes one or more protection devices , the method comprising: operating the power system based on a first operational curve for a first protection device of the one or more protection devices, wherein the first operational curve indicates conditions upon which the first protection device will trip; obtaining trip information describing conditions that cause the first protection device to trip at each of one or more trip occurrences during operation of the power system; adjusting the first operational curve to generate an adjusted first operational curve that reflects the trip information; and operating the power system based on the adjusted first operational curve. operating the power system based on a first operational curve for a first protection device of the one or more protection devices, wherein the first operational curve indicates conditions upon which the first protection device will trip; obtaining trip information describing conditions that cause the first protection device to trip at each of one or more trip occurrences during operation of the power system; adjusting the first operational curve to generate an adjusted first operational curve that reflects the trip information; and operating the power system based on the adjusted first operational curve.
A method, performed by a network node, for configuring a quality of service, QoS, level for a wireless communication network bearer corresponding to a wireless device, the method comprising: assigning a first QoS profile to the bearer when the wireless device is in a first QoS region served by a first wireless communication network cell (S100), the first QoS profile corresponding to a first QoS level available in the first wireless communication network cell but not available to the wireless device in a second wireless communication network cell neighboring the first wireless communication network cell; and establishing communication for the bearer between the wireless device (S110) and the second wireless communication network cell when the wireless device begins a handover process (S105) with the second wireless communication network cell, the communication for the bearer being established using the first QoS profile but corresponding to a second QoS level different from the first QoS level, wherein the method further comprises: determining, after the handover process with the second wireless communication network cell, whether the wireless device is likely to return to the first QoS region served by the first wireless communication network cell (S120); when it is determined that the wireless device is not likely to return the first QoS region, assigning a second QoS profile to the bearer (S130); and when it is determined that the wireless device is likely to return to the first QoS region, maintaining the first QoS profile (S140). assigning a first QoS profile to the bearer when the wireless device is in a first QoS region served by a first wireless communication network cell (S100), the first QoS profile corresponding to a first QoS level available in the first wireless communication network cell but not available to the wireless device in a second wireless communication network cell neighboring the first wireless communication network cell; and establishing communication for the bearer between the wireless device (S110) and the second wireless communication network cell when the wireless device begins a handover process (S105) with the second wireless communication network cell, the communication for the bearer being established using the first QoS profile but corresponding to a second QoS level different from the first QoS level, determining, after the handover process with the second wireless communication network cell, whether the wireless device is likely to return to the first QoS region served by the first wireless communication network cell (S120); when it is determined that the wireless device is not likely to return the first QoS region, assigning a second QoS profile to the bearer (S130); and when it is determined that the wireless device is likely to return to the first QoS region, maintaining the first QoS profile (S140).
A system for supplying sustenance to animals , comprising: at least one sustenance unit arranged to contain animal sustenance, at least one light source configured to illuminate the at least one sustenance unit, at least one sensor arrangement configured to detect - a movement of the at least one sustenance unit, and to detect at least one of - a position of at least one animal in proximity to the at least one sustenance unit, - a motion of at least one animal in proximity to the at least one sustenance unit, and - a sound of at least one animal in proximity to the at least one sustenance unit, and a processor coupled to the at least one sensor arrangement, wherein the processor is configured to compare the detected motion with at least one predetermined motion associated with at least one activity of the at least one animal, determine at least one activity of the at least one animal based on at least one of the detected position of the at least one animal, the comparison of the detected motion with the at least one predetermined motion, and the detected sound of the at least one animal, wherein the system is configured to, via the processor, control the at least one light source based on the detected movement of the at least one sustenance unit, and the determined at least one activity of the at least one animal. at least one sustenance unit arranged to contain animal sustenance, at least one light source configured to illuminate the at least one sustenance unit, at least one sensor arrangement configured to detect - a movement of the at least one sustenance unit, and to detect at least one of - a position of at least one animal in proximity to the at least one sustenance unit, - a motion of at least one animal in proximity to the at least one sustenance unit, and - a sound of at least one animal in proximity to the at least one sustenance unit, and - a movement of the at least one sustenance unit, and to detect at least one of - a position of at least one animal in proximity to the at least one sustenance unit, - a motion of at least one animal in proximity to the at least one sustenance unit, and - a sound of at least one animal in proximity to the at least one sustenance unit, and a processor coupled to the at least one sensor arrangement, wherein the processor is configured to compare the detected motion with at least one predetermined motion associated with at least one activity of the at least one animal, determine at least one activity of the at least one animal based on at least one of the detected position of the at least one animal, the comparison of the detected motion with the at least one predetermined motion, and the detected sound of the at least one animal, wherein the system is configured to, via the processor, control the at least one light source based on the detected movement of the at least one sustenance unit, and the determined at least one activity of the at least one animal.
A method for analyzing AFP glycopeptide to provide information useful for liver cancer diagnosis which comprises the following steps: 1) separating α-fetoprotein (AFP) by using an anti-AFP antibody from a sample obtained from a subject; 2) obtaining AFP glycopeptide by hydrolyzing the AFP separated in step 1); 3) analyzing the mass and quantity of the AFP glycopeptide obtained in step 2); 4) selecting the glycopeptide containing a sequence composed of Val-Asn-Phe-Thr-Glu-Ile-Gln-Lys(VNFTEIQK, SEQ. ID. NO: 1) and having a molecular weight of 2600.1±0.5, 2746.2±0.5, 2891.2±0.5, 3037.2±0.5, 3182.3±0.5, or 3328.3±0.5 Da; and 5) calculating the rate of fucosylation of the glycopeptide selected in step 4) and comparing the calculation result with that of a sample obtained from a subject having liver cirrhosis or hepatitis. 1) separating α-fetoprotein (AFP) by using an anti-AFP antibody from a sample obtained from a subject; 2) obtaining AFP glycopeptide by hydrolyzing the AFP separated in step 1); 3) analyzing the mass and quantity of the AFP glycopeptide obtained in step 2); 4) selecting the glycopeptide containing a sequence composed of Val-Asn-Phe-Thr-Glu-Ile-Gln-Lys(VNFTEIQK, SEQ. ID. NO: 1) and having a molecular weight of 2600.1±0.5, 2746.2±0.5, 2891.2±0.5, 3037.2±0.5, 3182.3±0.5, or 3328.3±0.5 Da; and 5) calculating the rate of fucosylation of the glycopeptide selected in step 4) and comparing the calculation result with that of a sample obtained from a subject having liver cirrhosis or hepatitis.
A method for optimizing performance of an automated control system for drilling, comprising: obtaining a measure of performance for each drilling activity of a set of one or more drilling activities, wherein a drilling sub-process comprises the set of one or more drilling activities; calculating an activity performance index for each of the one or more drilling activities, comprising: obtaining a reference performance index comprising reference data for each of the one or more drilling activities; comparing, for each of the one or more drilling activities, the measure of performance to the reference data; calculating the activity performance index for each of the one or more drilling activities based at least in part on the comparing; generating a drilling sub-process performance index based on the one or more activity performance indexes; comparing, for each of the one or more drilling activities, a configuration of one or more drilling parameters to a reference configuration of one or more drilling parameters associated with the reference data for the particular drilling activity; determining one or more instructions to adjust the configuration of one or more drilling parameters associated with the one or more drilling activities based at least in part on the comparing; and causing at least one tool-specific controller to implement the one or more instructions to adjust the configuration of one or more drilling parameters. obtaining a measure of performance for each drilling activity of a set of one or more drilling activities, wherein a drilling sub-process comprises the set of one or more drilling activities; calculating an activity performance index for each of the one or more drilling activities, comprising: obtaining a reference performance index comprising reference data for each of the one or more drilling activities; comparing, for each of the one or more drilling activities, the measure of performance to the reference data; calculating the activity performance index for each of the one or more drilling activities based at least in part on the comparing; obtaining a reference performance index comprising reference data for each of the one or more drilling activities; comparing, for each of the one or more drilling activities, the measure of performance to the reference data; calculating the activity performance index for each of the one or more drilling activities based at least in part on the comparing; generating a drilling sub-process performance index based on the one or more activity performance indexes; comparing, for each of the one or more drilling activities, a configuration of one or more drilling parameters to a reference configuration of one or more drilling parameters associated with the reference data for the particular drilling activity; determining one or more instructions to adjust the configuration of one or more drilling parameters associated with the one or more drilling activities based at least in part on the comparing; and