mhurhangee/patent-ind-claim-en huggingface dataset:
A method for surveying an environment by a movable surveying instrument that is configured as a laser scanner, a theodolite, a GNSS surveying antenna, a mobile mapping system, and/or a surveying field controller and configured to be carried by a human in the environment along a substantially random trajectory, the method comprising - a progressional capturing of 2D images by at least one camera at the surveying instrument and applying a visual simultaneous location and mapping algorithm or a visual inertial simultaneous location and mapping algorithm that also takes into account measurement values of inertial sensors, with - a progressional deriving of a sparse evolving point cloud of at least part of the environment of the surveying instrument based on the series of captured 2D images, and - a progressional deriving of a trajectory of movement of the surveying instrument with respect to the sparse evolving point cloud ; characterized in that the method further comprises: - a progressional matching of the sparse evolving point cloud with a known CAD-geometry of at least part of the environment, with a minimizing of a functional which is configured to model a distance between the sparse point cloud and the known CAD-geometry ; and - a deriving and providing of a spatial localization and orientation of the surveying instrument in relation to the known CAD-geometry according to the matching. - a progressional capturing of 2D images by at least one camera at the surveying instrument and applying a visual simultaneous location and mapping algorithm or a visual inertial simultaneous location and mapping algorithm that also takes into account measurement values of inertial sensors, with - a progressional deriving of a sparse evolving point cloud of at least part of the environment of the surveying instrument based on the series of captured 2D images, and - a progressional deriving of a trajectory of movement of the surveying instrument with respect to the sparse evolving point cloud ; - a progressional deriving of a sparse evolving point cloud of at least part of the environment of the surveying instrument based on the series of captured 2D images, and - a progressional deriving of a trajectory of movement of the surveying instrument with respect to the sparse evolving point cloud ; - a progressional matching of the sparse evolving point cloud with a known CAD-geometry of at least part of the environment, with a minimizing of a functional which is configured to model a distance between the sparse point cloud and the known CAD-geometry ; and - a deriving and providing of a spatial localization and orientation of the surveying instrument in relation to the known CAD-geometry according to the matching.
A system comprising: an imaging device for acquiring image data of anatomy of a subject; a display communicably coupled to the imaging device; a mobile device communicating with the imaging device and the display over a dedicated communication channel; and a database communicably coupled to the imaging device and the mobile device, wherein the database stores one or more pre-operative images, wherein the mobile device comprises one or more applications, wherein an application of the one or more applications is configured to: receive the image data from at least one of the imaging device and the display; perform tomographic image reconstruction using the image data to generate a tomographic image; receive a pre-operative image of the one or more pre-operative images; and present the tomographic image and the received pre-operative image to a user. an imaging device for acquiring image data of anatomy of a subject; a display communicably coupled to the imaging device; a mobile device communicating with the imaging device and the display over a dedicated communication channel; and a database communicably coupled to the imaging device and the mobile device, wherein the database stores one or more pre-operative images, wherein the mobile device comprises one or more applications, wherein an application of the one or more applications is configured to: receive the image data from at least one of the imaging device and the display; perform tomographic image reconstruction using the image data to generate a tomographic image; receive a pre-operative image of the one or more pre-operative images; and present the tomographic image and the received pre-operative image to a user. receive the image data from at least one of the imaging device and the display; perform tomographic image reconstruction using the image data to generate a tomographic image; receive a pre-operative image of the one or more pre-operative images; and present the tomographic image and the received pre-operative image to a user.
A fluid management assembly comprising: a connector having at least one inlet and at least one outlet and a lumen extending there between, wherein the connector comprises a plastic material comprising one of polyethylene (PE), polypropylene (PP), polyvinylidene fluoride (PVDF), perfluoroalkoxy (PFA), polytetrafluoroethylene (PTFE), or polycarbonate; a first silicone tubing connected to the at least one inlet at a first interface; a second silicone tubing connected to the at least one outlet at a second interface; a silicone overmolding surrounding the connector , the first interface, and the second interface, wherein the silicone overmolding comprises a UV-cured silicone cured at ambient or slightly above temperatures. a connector having at least one inlet and at least one outlet and a lumen extending there between, wherein the connector comprises a plastic material comprising one of polyethylene (PE), polypropylene (PP), polyvinylidene fluoride (PVDF), perfluoroalkoxy (PFA), polytetrafluoroethylene (PTFE), or polycarbonate; a first silicone tubing connected to the at least one inlet at a first interface; a second silicone tubing connected to the at least one outlet at a second interface; a silicone overmolding surrounding the connector , the first interface, and the second interface, wherein the silicone overmolding comprises a UV-cured silicone cured at ambient or slightly above temperatures.
Stun grenade comprising a housing , having at least one blow-out opening , having an actuating element, having at least one effect charge, and at least one fuse head , wherein the housing has a front and a rear side, and side surfaces which connect the front and rear sides, the housing is cuboid and the at least one blow-out opening is arranged on one of the side surfaces. having at least one blow-out opening , having an actuating element, having at least one effect charge, and at least one fuse head , wherein the housing has a front and a rear side, and side surfaces which connect the front and rear sides, the housing is cuboid and the at least one blow-out opening is arranged on one of the side surfaces.
An orthodontic composite , comprising: an orthodontic member which has a tube shape, a hollow polygonal prism shape, a hollow truncated polygonal pyramid shape, a hollow truncated cone shape, or a funnel shape; and an orthodontic wire that is inserted into the hollow portion of the orthodontic member, wherein the orthodontic member consists of a water-soluble or biodegradable material, wherein the orthodontic member has a mark formed thereon, and wherein the mark includes at least one selected from among a center mark representing a center in a longitudinal direction of the orthodontic member, a working mark representing a length from the center of the orthodontic member, and an end mark representing an end of the orthodontic member. an orthodontic member which has a tube shape, a hollow polygonal prism shape, a hollow truncated polygonal pyramid shape, a hollow truncated cone shape, or a funnel shape; and an orthodontic wire that is inserted into the hollow portion of the orthodontic member, wherein the orthodontic member consists of a water-soluble or biodegradable material, wherein the orthodontic member has a mark formed thereon, and wherein the mark includes at least one selected from among a center mark representing a center in a longitudinal direction of the orthodontic member, a working mark representing a length from the center of the orthodontic member, and an end mark representing an end of the orthodontic member.
A compound comprising a heteroleptic iridium complex having the formula: wherein X is selected from the group consisting of NR, O, and S; wherein R is selected from hydrogen and alkyl selected from methyl, ethyl, propyl, isopropyl, butyl, isobutyl, tert-butyl; wherein R 1 , R 2 , R 3 , and R 4 may represent mono, di, tri, or tetra substitutions; and wherein each of R 1 , R 2 , R 3 , and R 4 are independently selected from the group consisting of hydrogen, alkyl having four or fewer carbon atoms, and aryl with 6 or fewer atoms in the ring. wherein X is selected from the group consisting of NR, O, and S; wherein R is selected from hydrogen and alkyl selected from methyl, ethyl, propyl, isopropyl, butyl, isobutyl, tert-butyl; wherein R 1 , R 2 , R 3 , and R 4 may represent mono, di, tri, or tetra substitutions; and wherein each of R 1 , R 2 , R 3 , and R 4 are independently selected from the group consisting of hydrogen, alkyl having four or fewer carbon atoms, and aryl with 6 or fewer atoms in the ring.
Reaction device having a first wall , which defines an interior , which accommodates a stirring mechanism , characterized in that a heat exchanger is at least partly provided on the surface of the first wall facing away from the interior and/or the stirring mechanism , wherein the heat exchanger has a grate structure and at least two layers having a grate structure.
A method to discharge a coil comprising: commanding, by a controller , a step in connection with a stepper motor that is connected to a first transistor (M1) configured to drive the stepper motor, wherein turning-on the first transistor conducts current therethrough and to the motor; discharging a current in the coil of the stepper motor when turning-off the first transistor (M1), wherein turning-off the first transistor (M1) turns-off a second transistor (Q1) and charges a capacitor (C1) coupled to the coil responsive to the commanded step; and recirculating the current by turning on the first transistor (M1) which in turn turns on the second transistor (Q1) and causes the capacitor (C1) to transfer the charge generated during the discharging of the current in the coil to a second capacitor (C2) and using charge stored on the second capacitor (C2) to drive the recirculated current through the coil , wherein the coil is a polarity changing coil and wherein the energy associated with the discharge phase of the polarity changing coil is re-circulated during the drive phase of the polarity changing coil. commanding, by a controller , a step in connection with a stepper motor that is connected to a first transistor (M1) configured to drive the stepper motor, wherein turning-on the first transistor conducts current therethrough and to the motor; discharging a current in the coil of the stepper motor when turning-off the first transistor (M1), wherein turning-off the first transistor (M1) turns-off a second transistor (Q1) and charges a capacitor (C1) coupled to the coil responsive to the commanded step; and recirculating the current by turning on the first transistor (M1) which in turn turns on the second transistor (Q1) and causes the capacitor (C1) to transfer the charge generated during the discharging of the current in the coil to a second capacitor (C2) and using charge stored on the second capacitor (C2) to drive the recirculated current through the coil , wherein the coil is a polarity changing coil and wherein the energy associated with the discharge phase of the polarity changing coil is re-circulated during the drive phase of the polarity changing coil.
A method for signal transmission, comprising: sending , by a sending node, a request-to-send,RTS, signal to a receiving node, the RTS signal comprising configuration information configured to transmit a clear-to-send,CTS, signal; and receiving , by the sending node, the CTS signal from the receiving node, the CTS signal being sent by the receiving node according to the configuration information, characterized in that , the configuration information comprises indication information of each of N candidate beams and information of sending time, corresponding to each of the N candidate beams, of the CTS signal, N being a positive integer. sending , by a sending node, a request-to-send,RTS, signal to a receiving node, the RTS signal comprising configuration information configured to transmit a clear-to-send,CTS, signal; and receiving , by the sending node, the CTS signal from the receiving node, the CTS signal being sent by the receiving node according to the configuration information, characterized in that , the configuration information comprises indication information of each of N candidate beams and information of sending time, corresponding to each of the N candidate beams, of the CTS signal, N being a positive integer.
A transmission method for transmitting a message from a first node device to a second node device belonging to a network neighbourhood of said first node device, said first and second node devices belonging to an electrical supply network using powerline communications, the transmission method being characterised in that it comprises the following steps implemented by the first node device: - fragmenting (S210) said message into N fragments, N being a natural integer greater than or equal to 2; - associating (S220), with the odd fragments, a first frequency band of a set of frequency bands comprising at least two frequency bands and associating, with the even fragments, a second frequency band of said set of frequency bands, said first and second frequency bands being different; and - transmitting (S230) each of said first and second fragments on the frequency band with which it is associated. - fragmenting (S210) said message into N fragments, N being a natural integer greater than or equal to 2; - associating (S220), with the odd fragments, a first frequency band of a set of frequency bands comprising at least two frequency bands and associating, with the even fragments, a second frequency band of said set of frequency bands, said first and second frequency bands being different; and - transmitting (S230) each of said first and second fragments on the frequency band with which it is associated.
A method for determining a trajectory (C) along which at least one camera is moving when attached to a moving vehicle , said method comprising: • determining a sample set of trajectory indication samples ( TIS 1 , TIS 2 ), said sample set comprising at least two trajectory indication samples; • for each trajectory indication sample in said sample set ( TIS 1 , TIS 2 ), determining an individual reliability measure (R 1 , R 2 ) indicative of the reliability of the associated trajectory indication sample; • determining a trajectory estimate (C est ); • determining a trajectory estimate error (CE) by, for each one of said trajectory indication samples in said sample set, determining an error measure (EM 1 , EM 2 ) indicative of an error between the trajectory estimate (C est ) and said trajectory indication sample ( TIS 1 , TIS 2 ), and by combining said error measures, weighted by said individual reliability measure, and • determining said trajectory (C) as being a trajectory estimate (C est ) that results in a trajectory estimate error (CE) that is within a predetermined trajectory estimate error range (ΔCE). • determining a sample set of trajectory indication samples ( TIS 1 , TIS 2 ), said sample set comprising at least two trajectory indication samples; • for each trajectory indication sample in said sample set ( TIS 1 , TIS 2 ), determining an individual reliability measure (R 1 , R 2 ) indicative of the reliability of the associated trajectory indication sample; • determining a trajectory estimate (C est ); • determining a trajectory estimate error (CE) by, for each one of said trajectory indication samples in said sample set, determining an error measure (EM 1 , EM 2 ) indicative of an error between the trajectory estimate (C est ) and said trajectory indication sample ( TIS 1 , TIS 2 ), and by combining said error measures, weighted by said individual reliability measure, and • determining said trajectory (C) as being a trajectory estimate (C est ) that results in a trajectory estimate error (CE) that is within a predetermined trajectory estimate error range (ΔCE).
A work vehicle , comprising: a driver's seat ; a first operation tool which is rockable in a front-back direction and arranged on one of a left side and a right side of the driver's seat ; a second operation tool which is rockable in the front-back direction and arranged forward of the first operation tool ; characterised by a third operation tool which is depressible and arranged between the first operation tool and the second operation tool in the front-back direction. a driver's seat ; a first operation tool which is rockable in a front-back direction and arranged on one of a left side and a right side of the driver's seat ; a second operation tool which is rockable in the front-back direction and arranged forward of the first operation tool ; characterised by a third operation tool which is depressible and arranged between the first operation tool and the second operation tool in the front-back direction.
A composition for a lithium ion secondary battery porous membrane comprising inorganic particles and a binding material, wherein the binding material includes a polymer A including an aliphatic conjugated diene monomer unit in a proportion of greater than 85 mass% and a polymer B including a (meth)acrylic acid ester monomer unit in a proportion of at least 60 mass% and no greater than 99 mass%, and a mass basis ratio of content of the polymer A relative to content of the polymer B is at least 0.2 and no greater than 9.0.
A receiving system for receiving wireless signals from a plurality of transmitting systems (11,22-65), said receiving system being configured to: - for each transmitting system of a plurality of transmitting systems (11,22-65), determine reception antenna weights for a plurality of antennas and/or antenna elements for receiving wireless signals from said transmitting system using receive beamforming characterized in that the receiving system is configured to: - determine a schedule for receiving wireless signals from said plurality of transmitting systems (11,22-65), said schedule indicating a resource allocation for each of said plurality of transmitting systems, said resource allocation specifying an allocated time period, - inform each transmitting system of said plurality of transmitting systems (11,22-65) of said resource allocation to said transmitting system, and - for each resource allocation in said schedule, receive a plurality of instances of a wireless signal via said plurality of antennas and/or antenna elements and combine said instances by using an antenna configuration which is based on at least reception antenna weights determined in relation to a transmitting system associated with said resource allocation. - for each transmitting system of a plurality of transmitting systems (11,22-65), determine reception antenna weights for a plurality of antennas and/or antenna elements for receiving wireless signals from said transmitting system using receive beamforming characterized in that the receiving system is configured to: - determine a schedule for receiving wireless signals from said plurality of transmitting systems (11,22-65), said schedule indicating a resource allocation for each of said plurality of transmitting systems, said resource allocation specifying an allocated time period, - inform each transmitting system of said plurality of transmitting systems (11,22-65) of said resource allocation to said transmitting system, and - for each resource allocation in said schedule, receive a plurality of instances of a wireless signal via said plurality of antennas and/or antenna elements and combine said instances by using an antenna configuration which is based on at least reception antenna weights determined in relation to a transmitting system associated with said resource allocation. - determine a schedule for receiving wireless signals from said plurality of transmitting systems (11,22-65), said schedule indicating a resource allocation for each of said plurality of transmitting systems, said resource allocation specifying an allocated time period, - inform each transmitting system of said plurality of transmitting systems (11,22-65) of said resource allocation to said transmitting system, and - for each resource allocation in said schedule, receive a plurality of instances of a wireless signal via said plurality of antennas and/or antenna elements and combine said instances by using an antenna configuration which is based on at least reception antenna weights determined in relation to a transmitting system associated with said resource allocation.
Use of peroxide (s) for crosslinking at least one polymer, said polymer consisting of an ethylene homopolymer or copolymer and in particular the ethylene-vinyl acetate (EVA) copolymer or a mixture of EVA with another ethylene homopolymer or copolymer, characterized in that the peroxide consists of a mixture of OO-tert-butyl O-isopropyl monoperoxycarbonate and of OO-tert-butyl 0-2-ethylhexyl monoperoxycarbonate or 00-tert-amyl 0-2-ethylhexyl monoperoxycarbonate, or of OO-tert-amyl O-isopropyl monoperoxycarbonate and of 00-tert-butyl O-2-ethylhexyl monoperoxycarbonate or 00-tert-amyl O-2-ethylhexyl monoperoxycarbonate in a mass ratio of from 40%/60% to 60%/40% of these two peroxides forming said mixture, and even more preferentially in a mass ratio of from 45%/55% to 55%/45% of these two peroxides forming said mixture.
An apparatus including an active modulated scattering probe array of probes, the apparatus comprising: a circuit board structure having a plurality of layers, wherein said plurality of layers include alternating planar layers of electrical conductors and at least one dielectric ; wherein each of the probes comprises a first plurality of probe antenna elements disposed with a first common orientation in a first array in a first one of said plurality of layers; a first plurality of impedances ; and an electrical signal modulation device connected among said first plurality of probe antenna elements and connected among said first plurality of electrical impedances; characterized in that : said electrical signal modulation device of each probe is disposed in a second one of said plurality of layers; and said first plurality of electrical impedances of each probe is disposed in said second one of said plurality of layers. a circuit board structure having a plurality of layers, wherein said plurality of layers include alternating planar layers of electrical conductors and at least one dielectric ; wherein each of the probes comprises a first plurality of probe antenna elements disposed with a first common orientation in a first array in a first one of said plurality of layers; a first plurality of impedances ; and an electrical signal modulation device connected among said first plurality of probe antenna elements and connected among said first plurality of electrical impedances; characterized in that : said electrical signal modulation device of each probe is disposed in a second one of said plurality of layers; and said first plurality of electrical impedances of each probe is disposed in said second one of said plurality of layers.