mhurhangee/ep-ind-claims huggingface dataset:
A hemodialysis system comprising: an on-line dialysate generation source; a dialyzer (20, 30); a first dialysate pump in fluid communication with the on-line dialysate generation source for pumping dialysate to the dialyzer (20, 30); a second dialysate pump in fluid communication with the on-line dialysate generation source for pumping dialysate to the dialyzer (20, 30); a third dialysate pump for pumping dialysate from the dialyzer (20, 30); a fourth dialysate pump for pumping dialysate from the dialyzer (20, 30); wherein each of the four dialysate pumps (22, 24, 26, 28) is operable individually with a volumetric measuring device (32, 34, 36, 38); and wherein each dialysate pump is associated with an inlet valve (56, V2, V3, V16, V18) and an outlet valve (56, V4, V5, V15, V17), the system being configured to use the dialysate pumps and the inlet and outlet valves to alternately pump dialysate from the first and second dialysate pumps (22, 24) to the dialyzer (20, 30) and to alternately pull dialysate from the dialyzer (20, 30) to the third and fourth dialysate pumps (26, 28). an on-line dialysate generation source; a dialyzer (20, 30); a first dialysate pump in fluid communication with the on-line dialysate generation source for pumping dialysate to the dialyzer (20, 30); a second dialysate pump in fluid communication with the on-line dialysate generation source for pumping dialysate to the dialyzer (20, 30); a third dialysate pump for pumping dialysate from the dialyzer (20, 30); a fourth dialysate pump for pumping dialysate from the dialyzer (20, 30); wherein each of the four dialysate pumps (22, 24, 26, 28) is operable individually with a volumetric measuring device (32, 34, 36, 38); and wherein each dialysate pump is associated with an inlet valve (56, V2, V3, V16, V18) and an outlet valve (56, V4, V5, V15, V17), the system being configured to use the dialysate pumps and the inlet and outlet valves to alternately pump dialysate from the first and second dialysate pumps (22, 24) to the dialyzer (20, 30) and to alternately pull dialysate from the dialyzer (20, 30) to the third and fourth dialysate pumps (26, 28).
A pen needle comprising, a hub having a recess on a proximal side for receiving a medication pen body and distal end; a cannula received in said hub and extending from said distal end of said hub, said cannula having a distal end for injection into a subject's skin, and a proximal end for positioning in a medication compartment of the pen body; characterized in that the hub has a curved distal skin contact surface, at said distal end having a diameter greater than 3.0 mm, an outer peripheral surface at an outer peripheral edge, an inner annular surface surrounding the cannula and where the distal end has a curved portion with a radius of curvature extending between the outer peripheral edge and the inner annular surface, and where said curved portion has a radius of curvature in a range of 6.0 mm to 10.0 mm. a hub having a recess on a proximal side for receiving a medication pen body and distal end; a cannula received in said hub and extending from said distal end of said hub, said cannula having a distal end for injection into a subject's skin, and a proximal end for positioning in a medication compartment of the pen body; characterized in that the hub has a curved distal skin contact surface, at said distal end having a diameter greater than 3.0 mm, an outer peripheral surface at an outer peripheral edge, an inner annular surface surrounding the cannula and where the distal end has a curved portion with a radius of curvature extending between the outer peripheral edge and the inner annular surface, and where said curved portion has a radius of curvature in a range of 6.0 mm to 10.0 mm.
Refrigeration appliance with at least one storage compartment cooled by a cold air fan and an ice maker arranged in the storage compartment in a cold air flow driven by the cold air fan, which ice maker has an ice tray, in which recesses are preformed for the formation of pieces of ice, and a bracket (15, 20, 23), in which a frozen goods carrier can be mounted, wherein the ice maker further has a collecting container for finished pieces of ice, wherein the frozen goods carrier is embodied as a tray, plate, wire shelf or for the horizontal storage of bottle-shaped containers and is provided in an intermediate space between a space that is occupied by the ice tray when the ice maker is being used and a space that is occupied by the finished pieces of ice in the collecting container, wherein the bracket has guide ribs extending on side walls of an ice maker housing, wherein the frozen goods carrier that engages into the intermediate space is mounted on the bracket such that it can be extended, wherein the cold air fan has a nozzle that opens into the intermediate space, characterised in that it is possible to select a rapid freeze operating mode of the ice maker on a user interface of the refrigeration appliance, in which a refrigeration machine of the refrigeration appliance and the cold air fan, after activation, run continuously during a limited time span that is preset or can be selected by the user, without water having previously been let into the ice tray.
A secondary battery capacity recovery method comprising: fixing a secondary battery with deteriorated lifespan characteristics to a clamping unit; heating the secondary battery with deteriorated lifespan characteristics while pressing the secondary battery with deteriorated lifespan characteristics to compress a positive electrode, negative electrode, or separator included in the secondary battery; and charging/discharging the secondary battery with deteriorated lifespan characteristics, while pressing and heating the secondary battery with deteriorated lifespan characteristics after being fixed to the clamping unit. fixing a secondary battery with deteriorated lifespan characteristics to a clamping unit; heating the secondary battery with deteriorated lifespan characteristics while pressing the secondary battery with deteriorated lifespan characteristics to compress a positive electrode, negative electrode, or separator included in the secondary battery; and charging/discharging the secondary battery with deteriorated lifespan characteristics, while pressing and heating the secondary battery with deteriorated lifespan characteristics after being fixed to the clamping unit.
A method of determining an area of interest of a plurality of mobile devices (104a, 104b, 104c, 104d), the method comprising: obtaining sequential trajectory data comprising a plurality of dots associated with times and locations of each of the plurality of mobile devices; generating a plurality of clusters, based on the obtained sequential trajectory data, each cluster comprising a plurality of dots from a corresponding mobile device of the plurality of mobile devices; collecting GPS data and ambient signal data of at least one of the plurality of mobile devices when said at least one of the plurality of mobile devices moves; determining a reference location based on a change in at least one of Global Positioning System, GPS data, and ambient signal data of said at least one of the plurality of mobile devices; determining a trajectory distance travelled by each mobile device from the reference location to each cluster; selecting a subset of clusters whose trajectory distances are inside of a specified range relative to the other trajectory distances; and determining a location of the area of interest of the mobile devices based on the selected subset of clusters. obtaining sequential trajectory data comprising a plurality of dots associated with times and locations of each of the plurality of mobile devices; generating a plurality of clusters, based on the obtained sequential trajectory data, each cluster comprising a plurality of dots from a corresponding mobile device of the plurality of mobile devices; collecting GPS data and ambient signal data of at least one of the plurality of mobile devices when said at least one of the plurality of mobile devices moves; determining a reference location based on a change in at least one of Global Positioning System, GPS data, and ambient signal data of said at least one of the plurality of mobile devices; determining a trajectory distance travelled by each mobile device from the reference location to each cluster; selecting a subset of clusters whose trajectory distances are inside of a specified range relative to the other trajectory distances; and determining a location of the area of interest of the mobile devices based on the selected subset of clusters.
A packaging assembly for storing a bioprosthetic heart valve, the packaging assembly comprising: a sub-assembly comprising a valve holder configured to hold the bioprosthetic heart valve, and a clip configured to receive a shaft of the valve holder, the shaft having a shaft width, wherein the clip comprises: a body having an outer periphery and opposing inner edges (136A, 136B), the opposing inner edges (136A, 136B) defining a slot in the body for receiving the shaft of the valve holder, wherein the slot is open at a first end of the body and extends, along a longitudinal axis of the body, from the first end to a docking aperture; and a compliance feature in an interference-fit area of the slot adjacent to the docking aperture; wherein a slot width (W 2) between the opposing inner edges (136A, 136B) of the body in the interference-fit area is less than the shaft width, and wherein the compliance feature comprises a cutout (154A, 154B) adjacent to each of the opposing inner edges (136A, 136B) such that each of the opposing inner edges (136A, 136B) defines a beam (156A, 156B) within the interference-fit area, characterized in that the compliance feature allows the beam to deform so that the force needed to push the shaft of the valve holder past the interference-fit area is reduced. a body having an outer periphery and opposing inner edges (136A, 136B), the opposing inner edges (136A, 136B) defining a slot in the body for receiving the shaft of the valve holder, wherein the slot is open at a first end of the body and extends, along a longitudinal axis of the body, from the first end to a docking aperture; and a compliance feature in an interference-fit area of the slot adjacent to the docking aperture; wherein a slot width (W 2) between the opposing inner edges (136A, 136B) of the body in the interference-fit area is less than the shaft width, and wherein the compliance feature comprises a cutout (154A, 154B) adjacent to each of the opposing inner edges (136A, 136B) such that each of the opposing inner edges (136A, 136B) defines a beam (156A, 156B) within the interference-fit area, characterized in that the compliance feature allows the beam to deform so that the force needed to push the shaft of the valve holder past the interference-fit area is reduced.
A bearing assembly comprising a rolling bearing including an outer race, an inner race and rolling elements disposed between the outer race and the inner race, and an IC tag capable of communicating with an external reader/writer device without contacting the reader/writer device, and attached to a metal member of the rolling bearing, wherein the IC tag includes a tag antenna and is configured such that information can be exchanged between the tag antenna and a reader/writer antenna of the reader/writer device by forming a closed magnetic circuit between the tag antenna and the reader/writer antenna, wherein the IC tag is received in a hole formed in a surface of the metal member, characterized in that the tag antenna includes a plurality of protrusions (22a and 22c) facing an opening of the hole, wherein the protrusions (22a and 22c) are arranged such that magnetic fluxes leaving and/or entering the protrusions (22a and 22c) pass inside of an edge defining the opening of the hole and extend to outside of the hole, whereby information can be exchanged between the IC tag and the reader/writer device, the plurality of protrusions (22a and 22c) are portions of a core made of a material having a high magnetic permeability and including a base portion through which the protrusions (22a and 22c) are coupled together, wherein the tag antenna further comprises a wire made of a conductive material and wound around one of the base portion and the protrusions (22a and 22c), the IC tag further comprises an IC chip connected to two ends of the wire (21, and the IC tag further comprises a tubular casing in which the tag antenna and the IC chip are received, wherein the protrusions (22a and 22c) have end surfaces facing one of two openings of the casing at respective two axial ends of the casing.
Tyre for vehicle wheels comprising an inner surface and at least one anchoring element configured to fasten an object to said inner surface, wherein the anchoring element is at least partially incorporated in a first portion of the tyre defining said inner surface and is accessible from said inner surface; wherein the anchoring element comprises: i) a central body, provided with a base, ii) a seat, defined in the central body, configured to at least partially house said object, said seat being provided with a first mechanical coupling element configured to cooperate with a second mechanical coupling element associated to said object so as to fasten said object to the anchoring element; iii) at least one coupling portion (11; 27) of the central body to the tyre, and wherein said coupling portion (11; 27) transversely projects from the base of the central body and is interposed between and in contact with said first portion of the tyre defining the inner surface of the tyre and with a second portion of the tyre radially outer with respect to said first portion, characterised in that the anchoring element comprises a plurality of coupling portions of the central body substantially fin-shaped and transversely and perimetrally projecting from the base of the central body. wherein the anchoring element is at least partially incorporated in a first portion of the tyre defining said inner surface and is accessible from said inner surface; wherein the anchoring element comprises: i) a central body, provided with a base, ii) a seat, defined in the central body, configured to at least partially house said object, said seat being provided with a first mechanical coupling element configured to cooperate with a second mechanical coupling element associated to said object so as to fasten said object to the anchoring element; iii) at least one coupling portion (11; 27) of the central body to the tyre, and i) a central body, provided with a base, ii) a seat, defined in the central body, configured to at least partially house said object, said seat being provided with a first mechanical coupling element configured to cooperate with a second mechanical coupling element associated to said object so as to fasten said object to the anchoring element; iii) at least one coupling portion (11; 27) of the central body to the tyre, and wherein said coupling portion (11; 27) transversely projects from the base of the central body and is interposed between and in contact with said first portion of the tyre defining the inner surface of the tyre and with a second portion of the tyre radially outer with respect to said first portion, characterised in that the anchoring element comprises a plurality of coupling portions of the central body substantially fin-shaped and transversely and perimetrally projecting from the base of the central body.
Apackaging body for absorbent articles including absorbent articles and a bag-shaped packaging sheet that packages a plurality of the absorbent articles, wherein the packaging sheet includes a surface that constitutes an outer surface of the packaging body, and a back surface that constitutes an inner surface of the packaging body and comes into contact with the absorbent articles, the packaging sheet includes a film layer and a printing layer provided on a surface side of the film layer, characterized in that the surface of the packaging sheet has a plurality of surface recesses formed so as to be recessed toward the back surface side, the back surface of the packaging sheet has a plurality of back surface recesses formed so as to be recessed toward the surface side, the surface recesses are formed on the film layer and the printing layer, and a depth of the surface recess of the film layer is shallower than the depth of the back surface recess of the film layer.
A method for the preparation of a negative A-plate for retardation compensation of an LCD device, which comprises the steps of i) selecting a polymer resin whose structure comprises a moiety of wherein R 1, R 2, and R 3 are each independently hydrogen atoms, alkyl groups, substituted alkyl groups, or halogens, wherein OASU is an optically anisotropic sub-unit that is a substituted aromatic group, a disk-like group, or a mesogen, and wherein OASU is attached to the polymer backbone through a single covalent bond, ii) converting the polymer to a film, iii) uniaxially stretching the resulting polymer film at a suitable temperature to an elongation sufficient to yield a refractive index profile of n x <n y <n z, wherein the polymer film is stretched to an extension ratio of 2 to 30 %, and wherein n x is the in-plane refractive index parallel to the film stretching direction, n y is the in-plane refractive index perpendicular to n x, and n z is the thickness refractive index. i) selecting a polymer resin whose structure comprises a moiety of wherein R 1, R 2, and R 3 are each independently hydrogen atoms, alkyl groups, substituted alkyl groups, or halogens, wherein OASU is an optically anisotropic sub-unit that is a substituted aromatic group, a disk-like group, or a mesogen, and wherein OASU is attached to the polymer backbone through a single covalent bond, ii) converting the polymer to a film, iii) uniaxially stretching the resulting polymer film at a suitable temperature to an elongation sufficient to yield a refractive index profile of n x <n y <n z, wherein the polymer film is stretched to an extension ratio of 2 to 30 %, and
Radiation-emitting semiconductor chip with a radiation-transmissive window, which has a refractive index n F and a main area, and with a multilayer structure composed of semiconductor layers, which contains a radiation-generating active layer and is arranged at the main area of the window, the window being surrounded by a radiation-transmissive medium having a refractive index no, which is less than the refractive index n F of the window, where n F /n 0 < 2 holds true, and the window is bounded toward the radiation-transmissive medium at least by two areas, which form an angle β, for which the relationship 90 ⁢ ° - α t < β < 2 ⁢ α t is satisfied, where α t is given by α t = arcsin (n 0 /n F), characterized in that the window has at least one side area,which, relative to the multilayer structure, runs obliquely or in curved fashion or is stepped in such a way that the window tapers as seen from the multilayer structure.
An aerosol generating device comprising: a receiving portion configured to accommodate a cigarette through an opening formed at one end of the receiving portion; a first susceptor located in the receiving portion; a second susceptor arranged spaced apart from the first susceptor; a third susceptor arranged spaced apart from the first susceptor and the second susceptor; and a coil configured to generate an alternating magnetic field such that the first to third susceptors generate heat, wherein the aerosol generating device is configured to determine whether the cigarette is accommodated based on a first temperature profile of the second susceptor and a second temperature profile of the third susceptor, wherein the third susceptor is arranged in the side wall of the receiving portion, and wherein the second susceptor is arranged in a compartment located at the other end of the receiving portion. a receiving portion configured to accommodate a cigarette through an opening formed at one end of the receiving portion; a first susceptor located in the receiving portion; a second susceptor arranged spaced apart from the first susceptor; a third susceptor arranged spaced apart from the first susceptor and the second susceptor; and a coil configured to generate an alternating magnetic field such that the first to third susceptors generate heat, wherein the aerosol generating device is configured to determine whether the cigarette is accommodated based on a first temperature profile of the second susceptor and a second temperature profile of the third susceptor, wherein the third susceptor is arranged in the side wall of the receiving portion, and wherein the second susceptor is arranged in a compartment located at the other end of the receiving portion.
A positive electrode active material for a secondary battery, which is a lithium manganese composite oxide represented by the following general formula Li a (M x Mn 2-x-y Y y)(O 4-w Z w) wherein in the formula, 0.5 ≤ x ≤ 1.2, 0 < y ≤ 0.3, 0 ≤ a ≤ 1.2, and 0 < w ≤ 1; M is Fe; Y is at least one selected from the group consisting of Li, Be, B, Na, Mg, Al, K, Ca, Ti and Si; and Z is at least one of F and Cl.
A system for mapping electrophysiological information on a three-dimensional model, the system comprising: a modeling processor to obtain a three-dimensional model of at least a portion of a heart comprising position information for a plurality of location points on a surface of the heart; an electrophysiology measurement device for generating a cardiac electrophysiology map comprising position information for a plurality of measurement points and electrophysiology measurements made at each of the plurality of measurement points, said electrophysiology measurements being associated with the respective measurement points at which the electrophysiology measurements were measured; an edge processor to process a subset of the plurality of location points in the three-dimensional model and to determine, for each location point being processed, the two measurement points in the cardiac electrophysiology map that are closest in distance to location point being processed, said processor defining a plurality of edges, each of which comprises the pairs of measurement points determined to be closest to each of the location points being processed; a geometry processor to define a plurality of polygons within the cardiac electrophysiology map based on the plurality of edges; and a projection processor to assign an electrophysiology level to at least one location point located within one of the plurality of polygons based on interpolation using the electrophysiology measurements associated with each of the vertices of the polygons. a modeling processor to obtain a three-dimensional model of at least a portion of a heart comprising position information for a plurality of location points on a surface of the heart; an electrophysiology measurement device for generating a cardiac electrophysiology map comprising position information for a plurality of measurement points and electrophysiology measurements made at each of the plurality of measurement points, said electrophysiology measurements being associated with the respective measurement points at which the electrophysiology measurements were measured; an edge processor to process a subset of the plurality of location points in the three-dimensional model and to determine, for each location point being processed, the two measurement points in the cardiac electrophysiology map that are closest in distance to location point being processed, said processor defining a plurality of edges, each of which comprises the pairs of measurement points determined to be closest to each of the location points being processed; a geometry processor to define a plurality of polygons within the cardiac electrophysiology map based on the plurality of edges; and a projection processor to assign an electrophysiology level to at least one location point located within one of the plurality of polygons based on interpolation using the electrophysiology measurements associated with each of the vertices of the polygons.