mhurhangee/patent-ind-claim-en huggingface dataset:
A system, comprising: an energy delivery device; and a processor configured to identify a target tissue region adjusted for expected ablation-related anatomical changes including tissue contraction during ablation by: receiving information regarding the tissue region and the energy delivery device; based on said information, performing computations to predict the amount and type of anatomical changes the target tissue region will undergo during ablation, said computations including the following steps: computing a contraction region within the tissue region; determining contraction points within the tissue region; computing contraction deformations within the tissue region; applying the computed contraction deformations, and identifying the target tissue region that accommodates said anatomical changes. an energy delivery device; and a processor configured to identify a target tissue region adjusted for expected ablation-related anatomical changes including tissue contraction during ablation by: receiving information regarding the tissue region and the energy delivery device; based on said information, performing computations to predict the amount and type of anatomical changes the target tissue region will undergo during ablation, said computations including the following steps: computing a contraction region within the tissue region; determining contraction points within the tissue region; computing contraction deformations within the tissue region; applying the computed contraction deformations, and identifying the target tissue region that accommodates said anatomical changes. receiving information regarding the tissue region and the energy delivery device; based on said information, performing computations to predict the amount and type of anatomical changes the target tissue region will undergo during ablation, said computations including the following steps: computing a contraction region within the tissue region; determining contraction points within the tissue region; computing contraction deformations within the tissue region; applying the computed contraction deformations, and identifying the target tissue region that accommodates said anatomical changes. computing a contraction region within the tissue region; determining contraction points within the tissue region; computing contraction deformations within the tissue region; applying the computed contraction deformations, and identifying the target tissue region that accommodates said anatomical changes.
A fiber-reinforced carbonated hydraulic inorganic molded plate being a cured product of a composition comprising at least a cement component having a content of belite of 18-60% by mass, a pulp, and a reinforcing fiber having an aspect ratio in a range of 40 to 1000, wherein the molded plate has a carbonation reaction rate, which is a proportion of carbonated portion based on carbonated and un-carbonated portion measured as explained in the description, of higher than or equal to 30%.
An automated method for identifying areas of interest in optical coherence tomography (OCT) image data of a retina of an eye, said method comprising: collecting complex OCT image data over a plurality of transverse locations of the retina of a patient, wherein at least two OCT measurements are obtained at approximately the same locations separated in time by a predetermined interval; processing the data by applying an algorithm to look at changes in the complex OCT image data or its components such as intensity or phase to identify motion contrast; generating an en face vasculature image by projecting the identified motion contrast data; analyzing the statistical properties of the intensity content of the en face vasculature image to identify the size and shape of a particular area devoid of vasculature; displaying or storing the identified area. collecting complex OCT image data over a plurality of transverse locations of the retina of a patient, wherein at least two OCT measurements are obtained at approximately the same locations separated in time by a predetermined interval; processing the data by applying an algorithm to look at changes in the complex OCT image data or its components such as intensity or phase to identify motion contrast; generating an en face vasculature image by projecting the identified motion contrast data; analyzing the statistical properties of the intensity content of the en face vasculature image to identify the size and shape of a particular area devoid of vasculature; displaying or storing the identified area.
A composition comprising an active di-chain BoNT/A protein obtainable by a method comprising: (a) providing an isolated soluble single-chain BoNT/A protein; (b) contacting said BoNT/A protein with endoproteinase Lys-C (Lys-C) in solution; and (c) separating the soluble BoNT/A protein and Lys-C with a hydrophobic surface, wherein the soluble BoNT/A proteins binds with preference to the hydrophobic surface; and wherein said composition comprises (i) less than 2% single-chain BoNT/A; and (ii) Lys-C, wherein the Lys-C is present at a concentration of less than 400 pg Lys-C per 100 ng BoNT/A protein. (a) providing an isolated soluble single-chain BoNT/A protein; (b) contacting said BoNT/A protein with endoproteinase Lys-C (Lys-C) in solution; and (c) separating the soluble BoNT/A protein and Lys-C with a hydrophobic surface, wherein the soluble BoNT/A proteins binds with preference to the hydrophobic surface;
A Bioconjugate containing a nanoparticle of the core shell type and one or more antibodies immobilized thereon, wherein: said core contains a metal or alloy having soft magnetic properties and said shell contains one or more graphene layers, wherein the outermost layer is functionalized by one or more of the groups according to formula (I): wherein (Z) m represents a spacer selected from polyglycidol with m repeating units; m is an integer between 10 and 30; FG represents independent from each other a functional group selected from OH, COOH, COOR, and CO(NH)R; R represents C 1 -C 4 alkyl; and n is an integer between 6 and 100. said core contains a metal or alloy having soft magnetic properties and said shell contains one or more graphene layers, wherein the outermost layer is functionalized by one or more of the groups according to formula (I): wherein (Z) m represents a spacer selected from polyglycidol with m repeating units; m is an integer between 10 and 30; FG represents independent from each other a functional group selected from OH, COOH, COOR, and CO(NH)R; R represents C 1 -C 4 alkyl; and n is an integer between 6 and 100. (Z) m represents a spacer selected from polyglycidol with m repeating units; m is an integer between 10 and 30; FG represents independent from each other a functional group selected from OH, COOH, COOR, and CO(NH)R; R represents C 1 -C 4 alkyl; and n is an integer between 6 and 100.
A recording device comprising: a transportation path that transports a medium; a recording portion configured to move with respect to the transportation path in a direction (Y) intersecting with a recording surface of the medium, a moving mechanism that moves the recording portion; and a motor that causes the recording portion to move by transferring power to the moving mechanism, wherein the moving mechanism includes a first member on which a first rack is formed in a moving direction (V) of the recording portion, a first pinion gear that is engaged with the first rack, a second rack that is provided at a position facing the first rack in the recording portion, formed in the moving direction of the recording portion, and engaged with the first pinion gear, and a second member in which the first pinion gear is rotatably provided that is configured to move in the moving direction by receiving the power of the motor. a transportation path that transports a medium; a recording portion configured to move with respect to the transportation path in a direction (Y) intersecting with a recording surface of the medium, a moving mechanism that moves the recording portion; and a motor that causes the recording portion to move by transferring power to the moving mechanism, wherein the moving mechanism includes a first member on which a first rack is formed in a moving direction (V) of the recording portion, a first pinion gear that is engaged with the first rack, a second rack that is provided at a position facing the first rack in the recording portion, formed in the moving direction of the recording portion, and engaged with the first pinion gear, and a second member in which the first pinion gear is rotatably provided that is configured to move in the moving direction by receiving the power of the motor.
Laser tool , in particular for the structuring of cylinder barrels, having a laser source for generating laser beams , having a collimator for generating a parallel profile of the laser beams from the laser source which are guided through a lens which is arranged within a rotatable spindle , wherein an optical apparatus for deflecting the laser beams onto a material surface is fastened at an end of the spindle , said end facing away from the laser source , characterized in that the collimator is movable parallel to the laser beam by means of a drive , and in that the laser tool has a centring device for displacing the collimator in a plane perpendicular to the laser beam , wherein the laser tool has a tilting device by means of which the collimator is tiltable from at least one plane which encloses an angle (α) with the X-Y plane into a plane (E) perpendicular to the laser beam, wherein the tilting device is arranged between that side of the collimator which faces towards the optical apparatus and the centring device .
A terminal comprising: a transmitting section configured to perform uplink transmission by an active bandwidth part, BWP; and a control section configured to utilize an active first BWP in an uplink and an active second BWP in a supplementary uplink for the uplink transmission, characterized in that the active first BWP and the active second BWP are configured as initial active BWPs using higher layer signaling. a transmitting section configured to perform uplink transmission by an active bandwidth part, BWP; and a control section configured to utilize an active first BWP in an uplink and an active second BWP in a supplementary uplink for the uplink transmission, characterized in that the active first BWP and the active second BWP are configured as initial active BWPs using higher layer signaling.
System for visualizing tissue, the system comprising: an endoscope comprising a drive shaft , a pair of gears and a rotatabale drive collar : and a disposable drive tube comprising an elongated tube having a helical thread disposed on an exterior surface of the elongated tube; wherein the drive shaft is configured to deliver rotary motion to the drive tube via the pairs of gears and the rotatable drive collar , wherein the helical thread is partially deformable and has a height to engage an interior side wall of a bodily passageway, and characterised in that the disposable drive tube is releasably mounted to rotatable drive collar by a bayonet mount formed by: the disposable drive tube comprising an extension having a radially-extending pin mounted thereto, a shoulder formed distal to the radially-extending pin , a ring and a compression spring biasing the ring proximally, away from shoulder , and the rotatable drive collar comprising a shoulder for opposing the ring , and a C-shaped slot for receiving the pin , wherein the C-shaped slot comprises a first proximally-extending section , a second circumferentially-extending section and a third distally-extending section . an endoscope comprising a drive shaft , a pair of gears and a rotatabale drive collar : and a disposable drive tube comprising an elongated tube having a helical thread disposed on an exterior surface of the elongated tube; wherein the drive shaft is configured to deliver rotary motion to the drive tube via the pairs of gears and the rotatable drive collar , wherein the helical thread is partially deformable and has a height to engage an interior side wall of a bodily passageway, and characterised in that the disposable drive tube is releasably mounted to rotatable drive collar by a bayonet mount formed by: the disposable drive tube comprising an extension having a radially-extending pin mounted thereto, a shoulder formed distal to the radially-extending pin , a ring and a compression spring biasing the ring proximally, away from shoulder , and the rotatable drive collar comprising a shoulder for opposing the ring , and a C-shaped slot for receiving the pin , wherein the C-shaped slot comprises a first proximally-extending section , a second circumferentially-extending section and a third distally-extending section . the disposable drive tube comprising an extension having a radially-extending pin mounted thereto, a shoulder formed distal to the radially-extending pin , a ring and a compression spring biasing the ring proximally, away from shoulder , and the rotatable drive collar comprising a shoulder for opposing the ring , and a C-shaped slot for receiving the pin , wherein the C-shaped slot comprises a first proximally-extending section , a second circumferentially-extending section and a third distally-extending section .
Measuring vessel for an automatic beverage machine - with a measuring volume for receiving a material to be measured, and - with at least one weighing module , - wherein the material to be measured is provided as an ingredient for the preparation of a beverage, - at least one communication module connected to the weighing module being provided for detecting at least one weighing information, and - the communication module being designed for transmitting the at least one weighing information to the automatic beverage machine , characterized - in that at least one identification unit is provided for an identification of a user of the measuring vessel. - with a measuring volume for receiving a material to be measured, and - with at least one weighing module , - wherein the material to be measured is provided as an ingredient for the preparation of a beverage, - at least one communication module connected to the weighing module being provided for detecting at least one weighing information, and - the communication module being designed for transmitting the at least one weighing information to the automatic beverage machine , - in that at least one identification unit is provided for an identification of a user of the measuring vessel.
A method of sending a transmission configuration indication, TCI, state, applied to a network-side device, comprising: based on a channel, a Reference Signal, RS, type, or a Control Resource Set, CORESET, selecting (S110) at least one TCI state from a plurality of candidate TCI states configured in advance; and establishing a TCI state table according to the at least one TCI state, wherein, the TCI state table comprises correspondence relationship between the TCI state and an RS set, correspondence relationship among the TCI state, the RS set, and a Quasi-Co-Location, QCL, type, or correspondence relationship between the TCI state and a channel type; sending (S210) the TCI state table and an identifier of the channel, the RS type or the CORESET corresponding to the TCI state table; wherein after sending the TCI state table and the identifier of the channel, the RS type or the CORESET corresponding to the TCI state table, the method further comprises: sending TCI state indication information, wherein the TCI state indication information carries a target TCI state in the TCI state table; wherein the target TCI state is used to indicate the TCI state of a data channel, the TCI state indication information is sent through a Downlink Control Information, DCI, message; wherein, before sending the DCI message, the methods further comprises: indicating, through sending an RRC message or a MAC CE message, a signaling field for sending the TCI state to be enabled in the DCI message. based on a channel, a Reference Signal, RS, type, or a Control Resource Set, CORESET, selecting (S110) at least one TCI state from a plurality of candidate TCI states configured in advance; and establishing a TCI state table according to the at least one TCI state, wherein, the TCI state table comprises correspondence relationship between the TCI state and an RS set, correspondence relationship among the TCI state, the RS set, and a Quasi-Co-Location, QCL, type, or correspondence relationship between the TCI state and a channel type; sending (S210) the TCI state table and an identifier of the channel, the RS type or the CORESET corresponding to the TCI state table; wherein after sending the TCI state table and the identifier of the channel, the RS type or the CORESET corresponding to the TCI state table, the method further comprises: sending TCI state indication information, wherein the TCI state indication information carries a target TCI state in the TCI state table; wherein the target TCI state is used to indicate the TCI state of a data channel, the TCI state indication information is sent through a Downlink Control Information, DCI, message; wherein, before sending the DCI message, the methods further comprises: indicating, through sending an RRC message or a MAC CE message, a signaling field for sending the TCI state to be enabled in the DCI message.
A device for measuring the pollution index of a filtration membrane, the device comprising: a raw water supply part supplying raw water to be measured; a plurality of filtration membranes having different pore sizes, wherein the plurality of filtration membranes comprises at least a first filtration membrane , a second filtration membrane and a third filtration membrane , the pore sizes of the first, second, and third filtration membrane (110, 120, and 130) are ranked in descending order; a plurality of path lines connecting the plurality of filtration membranes in parallel to the raw water supply part ; a plurality of flow measuring parts installed on the outlet sides of the filtration membranes to correspond to the respective filtration membranes , and measuring the flow rate of raw water passed through the filtration membranes ; and a pollution index measuring part measuring the pollution indexes of the filtration membranes on the basis of the flow rates measured by the flow rate measuring parts ; characterized in that the device further comprises: at least one auxiliary filtration membrane installed on the inlet side of at least one of the plurality of filtration membranes , wherein the at least one auxiliary filtration membrane comprises a first auxiliary filtration membrane installed at the inlet of the second filtration membrane and having a larger pore size than that of the second filtration membrane , and a second auxiliary filtration membrane installed at the inlet of the third filtration membrane and having a larger pore size than that of the third filtration membrane . a raw water supply part supplying raw water to be measured; a plurality of filtration membranes having different pore sizes, wherein the plurality of filtration membranes comprises at least a first filtration membrane , a second filtration membrane and a third filtration membrane , the pore sizes of the first, second, and third filtration membrane (110, 120, and 130) are ranked in descending order; a plurality of path lines connecting the plurality of filtration membranes in parallel to the raw water supply part ; a plurality of flow measuring parts installed on the outlet sides of the filtration membranes to correspond to the respective filtration membranes , and measuring the flow rate of raw water passed through the filtration membranes ; and a pollution index measuring part measuring the pollution indexes of the filtration membranes on the basis of the flow rates measured by the flow rate measuring parts ; characterized in that the device further comprises: at least one auxiliary filtration membrane installed on the inlet side of at least one of the plurality of filtration membranes , wherein the at least one auxiliary filtration membrane comprises a first auxiliary filtration membrane installed at the inlet of the second filtration membrane and having a larger pore size than that of the second filtration membrane , and a second auxiliary filtration membrane installed at the inlet of the third filtration membrane and having a larger pore size than that of the third filtration membrane .
An in-flight refueling boom pod comprising: a plurality of displays , at least one being touch sensitive; a data storage element and at least one processor in data communication with the plurality of displays, the data storage element, and a memory storing processor executable code for configuring the at least one processor to: determine an operation phase of a refueling operation; determine one or more data and control layouts corresponding to the operational phase; rendering the one or more data and control layouts on the plurality of displays during the operational phase; and characterized by further being configured to receive an input via the touch sensitive display indicating a repositioning of a data and control layout; associate the repositioned data and control layout with an operator identity and the operational phase; and record a location of the repositioned data and control layout and associated operator identity and operational phase in the data storage element. a plurality of displays , at least one being touch sensitive; a data storage element and at least one processor in data communication with the plurality of displays, the data storage element, and a memory storing processor executable code for configuring the at least one processor to: determine an operation phase of a refueling operation; determine one or more data and control layouts corresponding to the operational phase; rendering the one or more data and control layouts on the plurality of displays during the operational phase; and characterized by further being configured to receive an input via the touch sensitive display indicating a repositioning of a data and control layout; associate the repositioned data and control layout with an operator identity and the operational phase; and record a location of the repositioned data and control layout and associated operator identity and operational phase in the data storage element. determine an operation phase of a refueling operation; determine one or more data and control layouts corresponding to the operational phase; rendering the one or more data and control layouts on the plurality of displays during the operational phase; and characterized by further being configured to receive an input via the touch sensitive display indicating a repositioning of a data and control layout; associate the repositioned data and control layout with an operator identity and the operational phase; and record a location of the repositioned data and control layout and associated operator identity and operational phase in the data storage element.