mhurhangee/ep-ind-claims huggingface dataset:
An electroanatomical mapping system for mapping arrhythmic foci, comprising: a focus mapping module configured: to receive as input an electrophysiology data point collected via a multi-dimensional catheter; to identify a clique of three or more electrodes carried by the multi-dimensional catheter; to identify a maximum bipolar voltage for the clique of three or more electrodes; to compute an average unipolar voltage for the clique of three or more electrodes; and to compute a focus score using a ratio of the computed average unipolar voltage for the clique of three electrodes to the identified maximum bipolar voltage for the clique of three or more electrodes, wherein the larger the ratio, the more likely the location is an arrhythmia focus. to receive as input an electrophysiology data point collected via a multi-dimensional catheter; to identify a clique of three or more electrodes carried by the multi-dimensional catheter; to identify a maximum bipolar voltage for the clique of three or more electrodes; to compute an average unipolar voltage for the clique of three or more electrodes; and to compute a focus score using a ratio of the computed average unipolar voltage for the clique of three electrodes to the identified maximum bipolar voltage for the clique of three or more electrodes, wherein the larger the ratio, the more likely the location is an arrhythmia focus.
An insulation glazing unit for controlling information (3, 4) reflected or projected to a surface of the insulation glazing unit by means of an interactive film attached to the insulation glazing unit, wherein the insulation glazing unit comprises at least two panes (6, 7, 13) forming an intermediate space between the at least two panes; the interactive film is disposed in the intermediate space and attached to a first pane of the at least two panes (6, 7, 13), and the controlling is implementable by touch through the first pane; the insulation glazing unit comprises a projection film for displaying the information (3, 4) reflected or projected thereon; and the projection film is disposed in the intermediate space between the at least two panes (6, 7, 13), the interactive film and the projection film being at least partially superimposed and attached to the first pane, or the interactive film is attached to the surface of the first pane and the projection film is attached to the surface of a second pane facing the first pane, the interactive film and the projection film being thereby disposed in the intermediate space between the first and second panes (6, 7).
Force introduction fitting (2, 42) for lightweight components, wherein the force introduction fitting (2, 42) is box-shaped and comprises at least one receiving means for mounting an anchor part; characterized by - two disc-shaped radial force introduction faces (6, 8); and - at least one axial force introduction face configured as a cylindrical surface; wherein the radial force introduction faces (6, 8) and the axial force introduction face enclose a cavity; wherein the force introduction fitting (2, 42) is formed as a one-piece component without joints wherein the receiving means is formed as a wall between the radial force introduction faces (6, 8) and enclosed by the axial force introduction face, extends non-parallel to the axial force introduction face, at least in portions, and comprises a bearing face for fitting a retaining face of the anchor part and further comprising an opening (36, 46) in a radial force introduction face (6, 8), which opening is accessable from outside and extends from outside the force introduction fitting into the cavity of the force introduction fitting (2, 42). - two disc-shaped radial force introduction faces (6, 8); and - at least one axial force introduction face configured as a cylindrical surface;
A screw tensioning device (100, 100a, 100b, 100c) for tensioning or loosening tensionable screw connections comprising: a fixation element to be connected to a screw; a support element moveable relative to the fixation element and arranged to be moved relative to the fixation element to apply tension to or remove tension from the screw; a piston (118, 118c) positioned and movable within the fixation element, the piston including a rod end (176, 176c), a rod portion (172, 172c) and a groove; an actuator assembly (120, 120a, 120b, 120c) including an actuator element, the actuator element (122, 122a, 122b, 122c) having a first threaded connection (180, 180a, 180b, 180c) with the rod portion (172, 172c) of the piston (118, 118c); and a volume containing a fluid, wherein the volume is defined at least partly by the piston (118, 118c), the fixation element, or the support element, wherein movement of the actuator element (122, 122a, 122b, 122c) causes an axial movement of the piston (118, 118c) within the fixation element, and the movement of the piston (118, 118c) manipulates the volume and thereby moves the fixation element with respect to the support element, and wherein the fixation element includes a protrusion extending radially inwards and engaged with the groove of the piston (118, 118c) to prevent a rotational movement of the piston (118, 118c) within the fixation element. a fixation element to be connected to a screw; a support element moveable relative to the fixation element and arranged to be moved relative to the fixation element to apply tension to or remove tension from the screw; a piston (118, 118c) positioned and movable within the fixation element, the piston including a rod end (176, 176c), a rod portion (172, 172c) and a groove; an actuator assembly (120, 120a, 120b, 120c) including an actuator element, the actuator element (122, 122a, 122b, 122c) having a first threaded connection (180, 180a, 180b, 180c) with the rod portion (172, 172c) of the piston (118, 118c); and a volume containing a fluid, wherein the volume is defined at least partly by the piston (118, 118c), the fixation element, or the support element, wherein movement of the actuator element (122, 122a, 122b, 122c) causes an axial movement of the piston (118, 118c) within the fixation element, and the movement of the piston (118, 118c) manipulates the volume and thereby moves the fixation element with respect to the support element, and wherein the fixation element includes a protrusion extending radially inwards and engaged with the groove of the piston (118, 118c) to prevent a rotational movement of the piston (118, 118c) within the fixation element.
A graphics processor comprising: a fetch and decode unit including an instruction fetcher to fetch a hardware macro instruction and an instruction decoder to decode the hardware macro instruction, wherein the hardware macro instruction includes a set of initial operands and to decode the hardware macro instruction includes to generate a set of hardware instructions including multiple dot product instructions, the multiple dot product instructions to be executed on input associated with a first matrix and a second matrix, the input identified at least in part based on the initial set of operands; and a matrix accelerator including a processing resource to execute the set of hardware instructions, wherein the hardware macro instruction additionally includes a predicate mask and a repeat count, the set of hardware instructions generated based on the predicate mask and the repeat count, wherein the repeat count is to indicate a maximum number of hardware instructions to generate for the set of hardware instructions, and wherein the instruction decoder comprises a priority encoder to scan the predicate mask to find a first activated bit in the predicate mask, the first activated bit indicating a first dot product instruction of the multiple dot product instructions to be generated. a fetch and decode unit including an instruction fetcher to fetch a hardware macro instruction and an instruction decoder to decode the hardware macro instruction, wherein the hardware macro instruction includes a set of initial operands and to decode the hardware macro instruction includes to generate a set of hardware instructions including multiple dot product instructions, the multiple dot product instructions to be executed on input associated with a first matrix and a second matrix, the input identified at least in part based on the initial set of operands; and a matrix accelerator including a processing resource to execute the set of hardware instructions, wherein the hardware macro instruction additionally includes a predicate mask and a repeat count, the set of hardware instructions generated based on the predicate mask and the repeat count, wherein the repeat count is to indicate a maximum number of hardware instructions to generate for the set of hardware instructions, and wherein the instruction decoder comprises a priority encoder to scan the predicate mask to find a first activated bit in the predicate mask, the first activated bit indicating a first dot product instruction of the multiple dot product instructions to be generated.
A thrust reverser device with doors for a nacelle of an aircraft turbojet engine comprising: - a fixed structure, and - a movable structure relative to said fixed structure, comprising at least one door pivotally mounted by means of pivots between a retracted position corresponding to an operation of the direct jet nacelle, and a deployed position corresponding to an operation of the reverse jet nacelle, said thrust reverser device being characterized in that it comprises a device for collecting part of a secondary air flow, adapted to collect part of the secondary air flow from a flow path for circulating the secondary air flow and to convey said collected air flow to at least one pivot of the door, so as to cool the adjacent areas of the pivots of the door, said adjacent areas of the pivots comprising air outlets shaped to discharge at least partly the collected secondary air flow. - a fixed structure, and - a movable structure relative to said fixed structure, comprising at least one door pivotally mounted by means of pivots between a retracted position corresponding to an operation of the direct jet nacelle, and a deployed position corresponding to an operation of the reverse jet nacelle,
A fan blade for a gas turbine engine comprising: a mid-span shroud including: a first shroud member on a first side of the fan blade including a first bearing face on a distal end thereof; and a second shroud member on a second side of the fan blade opposite from the first side including a second bearing face on a distal end thereof, wherein the first shroud member and the second shroud member have a portion with a reduced cross-sectional area, the cross-sectional area of the mid-span shroud decreases between opposing ends of the mid-span shroud, the first and second shroud members (68, 70) of adjacent fan blades are configured to contact each other at approximately the midpoint between the adjacent fan blades; characterised in that: the first shroud member and the second shroud member have an elliptical cross section with a minor axis that varies along the length of the first shroud member and the second shroud member; and with a major axis that varies along the length of the first shroud member and the second shroud member. a first shroud member on a first side of the fan blade including a first bearing face on a distal end thereof; and a second shroud member on a second side of the fan blade opposite from the first side including a second bearing face on a distal end thereof, wherein the first shroud member and the second shroud member have a portion with a reduced cross-sectional area, the cross-sectional area of the mid-span shroud decreases between opposing ends of the mid-span shroud, the first and second shroud members (68, 70) of adjacent fan blades are configured to contact each other at approximately the midpoint between the adjacent fan blades; characterised in that: the first shroud member and the second shroud member have an elliptical cross section with a minor axis that varies along the length of the first shroud member and the second shroud member; and with a major axis that varies along the length of the first shroud member and the second shroud member.
A method of making a plurality of knitted wire mesh filters each of which is free of tinkles comprising: producing a knitted tube that comprises (i) a plurality of segments comprising knitted rows of wire and (ii) a plurality of segments comprising knitted rows of yarn, the segments comprising knitted rows of wire alternating with segments comprising knitted rows of yarn; and producing a plurality of separated segments comprising knitted rows of wire without cutting any loops of knitted wire and thus without producing any tinkles; and producing the plurality of knitted wire mesh filters from the plurality of separated segments comprising knitted rows of wire; wherein: step comprises treating the knitted tube or a separated portion thereof which comprises at least one wire segment to remove yarn by dissolving the yarn or burning off the yarn; or step comprises unweaving of knitted yarn. producing a knitted tube that comprises (i) a plurality of segments comprising knitted rows of wire and (ii) a plurality of segments comprising knitted rows of yarn, the segments comprising knitted rows of wire alternating with segments comprising knitted rows of yarn; and producing a plurality of separated segments comprising knitted rows of wire without cutting any loops of knitted wire and thus without producing any tinkles; and producing the plurality of knitted wire mesh filters from the plurality of separated segments comprising knitted rows of wire; step comprises treating the knitted tube or a separated portion thereof which comprises at least one wire segment to remove yarn by dissolving the yarn or burning off the yarn; or step comprises unweaving of knitted yarn.
A lipid antigen-presenting liposomal composition for the detection of lipid antigen specific biomarker antibodies in antibody containing biological samples, the composition including liposomes comprising 1-palmitoyl-2-cholesterylcarbonoyl-sn-glycero-3-phosphocholine and mycolic acid.
A composition comprising (a) a chemoattractant of cancer cells and a cytotoxicity-inducing composition, and (b) a dendritic cell recruitment composition, for use in the treatment of cancer, wherein the chemoattractant of cancer cells and the cytotoxicity-inducing composition are comprised in a first zone of a porous 3-dimensional scaffold, and the dendritic cell recruitment composition is comprised in a second zone, wherein said scaffold is administered to a subject diagnosed with a cancer and maintained in situ for a time period sufficient to accumulate a circulating cancer cell to yield a cancer cell-containing scaffold; wherein said cancer cell-containing scaffold is contacted with a cytotoxic or cytolytic element to disrupt said cancer cell residing in the first zone, thereby producing a processed tumor antigen without need for a biopsy; and wherein said scaffold provides a temporary residence to load a dendritic cell recruited to the scaffold with said processed tumor antigen. (a) a chemoattractant of cancer cells and a cytotoxicity-inducing composition, and (b) a dendritic cell recruitment composition, for use in the treatment of cancer,
A display device (120,140,150) for displaying cross-sectional representations of an object, characterised in that said display device (120,140,150) comprises: a frame (12,60,98); and a plurality of display units ( 124,126, 146,162, 172) mounted on said frame and having one end connected together, each one of said plurality of display units ( 124,126,146,162,172) defining a geometric plane and being adapted to display a cross-sectional image of said object, said cross-sectional image comprising at least one internal feature of said object and being dependent on a spatial position in a three-dimensional environment of a corresponding one of the plurality of display units ( 124,126,146,162,172) on which said cross-sectional image is to be displayed, said plurality of display units (124,126,146,162,172) being connectable to a processor adapted to generate said cross-sectional image for each one of said plurality of display units ( 124,126,146,162,172) as a function of said spatial position, wherein said frame and said plurality of display units (124,126,146,162,172) have a cylindrical shape in order to substantially mimic a shape of a cylindrical object of which representation is displayed on the display device (120,140,150) and the plurality of display units (124,126, 146,162,172) being adapted to move with respect to the frame while staying supported by or attached to the frame. a frame (12,60,98); and a plurality of display units ( 124,126, 146,162, 172) mounted on said frame and having one end connected together, each one of said plurality of display units ( 124,126,146,162,172) defining a geometric plane and being adapted to display a cross-sectional image of said object, said cross-sectional image comprising at least one internal feature of said object and being dependent on a spatial position in a three-dimensional environment of a corresponding one of the plurality of display units ( 124,126,146,162,172) on which said cross-sectional image is to be displayed, said plurality of display units (124,126,146,162,172) being connectable to a processor adapted to generate said cross-sectional image for each one of said plurality of display units ( 124,126,146,162,172) as a function of said spatial position, wherein said frame and said plurality of display units (124,126,146,162,172) have a cylindrical shape in order to substantially mimic a shape of a cylindrical object of which representation is displayed on the display device (120,140,150) and the plurality of display units (124,126, 146,162,172) being adapted to move with respect to the frame while staying supported by or attached to the frame.
A method performed by a first radio network node for handling communication of a wireless device in a wireless communication network comprising at least a first cell and a second cell configured over at least partly a same bandwidth, the method comprising - transmitting a first system information, SI, over the first cell, wherein the first SI comprises one or more network identities, ID, and one or more access configurations for the one or more network IDs, and wherein the one or more network IDs are associated to a service that is prioritized over other services, wherein the one or more network identities are one or more public land mobile network, PLMN, IDs, enabling usage of services that are prioritized over other services for wireless devices of certain PLMN IDs; - scheduling resources associated to the service that is prioritized; and - transmitting a resource indication to a second radio network node, wherein the resource indication indicates the scheduled resources associated to the service that is prioritized. - transmitting a first system information, SI, over the first cell, wherein the first SI comprises one or more network identities, ID, and one or more access configurations for the one or more network IDs, and wherein the one or more network IDs are associated to a service that is prioritized over other services, wherein the one or more network identities are one or more public land mobile network, PLMN, IDs, enabling usage of services that are prioritized over other services for wireless devices of certain PLMN IDs; - scheduling resources associated to the service that is prioritized; and - transmitting a resource indication to a second radio network node, wherein the resource indication indicates the scheduled resources associated to the service that is prioritized.
A Nuclear Magnetic Resonance probe comprising: a primary circuit including a primary inductor coil with a primary resonance mode located in a sample resonator region; one or more secondary circuits including one or more secondary inductor coils (1070, 1071) located in a second region outside the sample resonator region, wherein the one or more secondary inductor coils (1070, 1071) are electrically connected to the primary inductor coil; and one or more resonators located in the second region each comprising an inductive coupling loop and a variable capacitor in parallel, wherein each of the one or more resonators is inductively coupled to one of the one or more secondary inductor coils (1070, 1071) with a coupling constant (k); a shunt configured to adjust the coupling constant (k), thereby enabling to detect one or more of at least two modes, wherein each of the one or more resonators is configured to the primary resonance mode into at least two modes. a primary circuit including a primary inductor coil with a primary resonance mode located in a sample resonator region; one or more secondary circuits including one or more secondary inductor coils (1070, 1071) located in a second region outside the sample resonator region, wherein the one or more secondary inductor coils (1070, 1071) are electrically connected to the primary inductor coil; and one or more resonators located in the second region each comprising an inductive coupling loop and a variable capacitor in parallel, wherein each of the one or more resonators is inductively coupled to one of the one or more secondary inductor coils (1070, 1071) with a coupling constant (k); a shunt configured to adjust the coupling constant (k), thereby enabling to detect one or more of at least two modes, wherein each of the one or more resonators is configured to the primary resonance mode into at least two modes.
A spark plug including an insulator containing not less than 92 mass % and not greater than 96 mass % of Al component in terms of oxide, wherein the insulator is formed from an alumina sintered body comprising an alumina crystal and a grain boundary phase present between crystal grains of the alumina crystal, and assuming that mass contents of an Si component, Mg component, Ba component, and Ca component in terms of oxide are represented by M SiO2, M MgO, M BaO, and M CaO, respectively, and a sum of M SiO2, M MgO, M BaO, and M CaO is represented by Mt, the grain boundary phase contains the Si component, the Mg component, the Ba component, and the Ca component so as to satisfy conditions to as follows: 0.17 ≤ M SiO2 /Mt ≤ 0.47 0.005 ≤ M MgO /Mt ≤ 0.07 0.29 ≤ M BaO /Mt ≤ 0.77 0.03 ≤ M CaO /Mt ≤ 0.19 0.17 ≤ M SiO2 /Mt ≤ 0.47 0.005 ≤ M MgO /Mt ≤ 0.07 0.29 ≤ M BaO /Mt ≤ 0.77 0.03 ≤ M CaO /Mt ≤ 0.19
A targeted nanoparticle comprising a mucic acid-containing polymer, a therapeutic agent, a targeting ligand, and a polymer containing a nitrophenylboronic acid, said nitrophenylboronic acid being coupled to the mucic acid-containing polymer with a reversible covalent linkage, said targeted nanoparticle being configured to present the polymer containing the nitrophenylboronic acid at a surface of the targeted nanoparticle, wherein the polymer containing the nitrophenylboronic acid is conjugated to the targeting ligand at its terminal end opposite the targeted nanoparticle, wherein the targeted nanoparticle has one molecule of targeting ligand per targeting nanoparticle.