mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method for reinforcing medical room protocols, comprising: acquiring , using a single image sensor , video data that captures a medical room; performing image processing on the acquired video data to determine whether it is possible that a medical personnel has complied with a first medical protocol, wherein the image processing includes: identifying at least one medical apparatus in the medical room; identifying a medical personnel in the medical room; detecting that the medical personnel has occluded a line of sight between the image monitoring device and the at least one medical apparatus; and determining the amount of time that the medical personnel occludes the line of sight, comparing the amount of time to a predefined time period corresponding to the minimum time required for a medical personnel to accomplish the first medical protocol; and triggering an alert in response to a determination that the amount of time is less than the predefined time period. acquiring , using a single image sensor , video data that captures a medical room; performing image processing on the acquired video data to determine whether it is possible that a medical personnel has complied with a first medical protocol, wherein the image processing includes: identifying at least one medical apparatus in the medical room; identifying a medical personnel in the medical room; detecting that the medical personnel has occluded a line of sight between the image monitoring device and the at least one medical apparatus; and determining the amount of time that the medical personnel occludes the line of sight, identifying at least one medical apparatus in the medical room; identifying a medical personnel in the medical room; detecting that the medical personnel has occluded a line of sight between the image monitoring device and the at least one medical apparatus; and determining the amount of time that the medical personnel occludes the line of sight, comparing the amount of time to a predefined time period corresponding to the minimum time required for a medical personnel to accomplish the first medical protocol; and triggering an alert in response to a determination that the amount of time is less than the predefined time period.
A microelectronic package comprising: a substrate having a first surface and a second surface remote from the first surface; a microelectronic element overlying the first surface; substantially rigid conductive posts projecting above at least one of the first or second surfaces (102 and 104), the conductive posts having top surfaces remote from the substrate and edge surfaces extending away from the top surfaces; conductive elements exposed at a surface of the substrate opposite the surface above which the conductive posts project, the conductive elements being electrically interconnected with the microelectronic element ; and an encapsulant overlying at least a portion of the microelectronic element and the surface of the substrate above which the conductive posts project, the encapsulant having a plurality of openings (136; 146), wherein at least some of the conductive posts are electrically insulated from one another and adapted to simultaneously carry different electric potentials: wherein the conductive posts have a frustoconical shape and wherein either: each of the plurality of openings in the encapsulant exposes the top surface and partially exposes the edge surface of at least one of the conductive posts within the openings ; or conductive bond metal masses are joined to the conductive posts and extend along the top and the edge surfaces of the conductive posts , the encapsulant openings are tapered, thereby partially exposing the conductive bond metal masses within the openings , and each encapsulant opening provides a conduit in the encapsulant layer. a substrate having a first surface and a second surface remote from the first surface; a microelectronic element overlying the first surface; substantially rigid conductive posts projecting above at least one of the first or second surfaces (102 and 104), the conductive posts having top surfaces remote from the substrate and edge surfaces extending away from the top surfaces; conductive elements exposed at a surface of the substrate opposite the surface above which the conductive posts project, the conductive elements being electrically interconnected with the microelectronic element ; and an encapsulant overlying at least a portion of the microelectronic element and the surface of the substrate above which the conductive posts project, the encapsulant having a plurality of openings (136; 146), wherein at least some of the conductive posts are electrically insulated from one another and adapted to simultaneously carry different electric potentials: wherein the conductive posts have a frustoconical shape and wherein either: each of the plurality of openings in the encapsulant exposes the top surface and partially exposes the edge surface of at least one of the conductive posts within the openings ; or conductive bond metal masses are joined to the conductive posts and extend along the top and the edge surfaces of the conductive posts , the encapsulant openings are tapered, thereby partially exposing the conductive bond metal masses within the openings , and each encapsulant opening provides a conduit in the encapsulant layer.
An assembly comprising: a guidewire ; a drainage stent having an anchoring mechanism ; a catheter system ; and a combination device (44; 144; 244; 344) including an anchoring mechanism cover, the combination device comprising a tubular body , the tubular body defining an inner diameter and having a locking portion (52, 54; 152; 252, 254; 352, 354); wherein the inner diameter of the tubular body is sized to fit about an outer diameter of the drainage stent and is sized to cover the anchoring mechanism ; and wherein the locking portion (52, 54; 152; 252, 254; 352, 354) of the tubular body is configured to secure the position of the guidewire relative to the catheter system . a guidewire ; a drainage stent having an anchoring mechanism ; a catheter system ; and a combination device (44; 144; 244; 344) including an anchoring mechanism cover, the combination device comprising a tubular body , the tubular body defining an inner diameter and having a locking portion (52, 54; 152; 252, 254; 352, 354); wherein the inner diameter of the tubular body is sized to fit about an outer diameter of the drainage stent and is sized to cover the anchoring mechanism ; and wherein the locking portion (52, 54; 152; 252, 254; 352, 354) of the tubular body is configured to secure the position of the guidewire relative to the catheter system .
A method of manufacturing a molded layered product comprising: forming a layer from a paste, said forming comprising: printing a first mold to define one layer of said product; and filling said first mold with a paste material, thereby forming a first layer; sealing the layer in a sealing hood ; applying a vacuum to the sealing hood; retaining the vacuum for a predetermined duration; removing the vacuum following said retaining; removing the seal; and printing successive further layers , each over a respective preceding layer, for each layer repeating said printing a mold, filling with paste, sealing, applying a vacuum, removing the vacuum and removing the seal; thereby to form a molded layered product, the method comprising carrying out a cycle of said sealing, applying and removing the vacuum and removing the seal a plurality of times for each of at least some of said layers, and wherein said cycle is repeated on a respective layer until a predetermined hardness is reached. forming a layer from a paste, said forming comprising: printing a first mold to define one layer of said product; and filling said first mold with a paste material, thereby forming a first layer; printing a first mold to define one layer of said product; and filling said first mold with a paste material, thereby forming a first layer; sealing the layer in a sealing hood ; applying a vacuum to the sealing hood; retaining the vacuum for a predetermined duration; removing the vacuum following said retaining; removing the seal; and printing successive further layers , each over a respective preceding layer, for each layer repeating said printing a mold, filling with paste, sealing, applying a vacuum, removing the vacuum and removing the seal; thereby to form a molded layered product, the method comprising carrying out a cycle of said sealing, applying and removing the vacuum and removing the seal a plurality of times for each of at least some of said layers, and wherein said cycle is repeated on a respective layer until a predetermined hardness is reached.
A one-step, one-pot method for in situ preparing a metal layer, said method comprising: a) preparing a liquid composition comprising at least one precursor of at least one metal selected from Ag, Au, Pd, Pt Cu, Cr, Zn, and any mixture thereof, at least one solvent of said precursor and at least one photo-initiator, wherein the concentration of the precursor is of at least 0.6% by weight relative to the weight of the liquid composition; b) depositing said liquid composition on a substrate thereby forming a liquid composition deposited on a substrate ; c) irradiating with a UV, Vis and IR source the liquid composition deposited on a substrate obtained at step b) thereby forming a metal layer comprising or consisting of said metal; d) obtaining a metal layer in contact with said substrate. a) preparing a liquid composition comprising at least one precursor of at least one metal selected from Ag, Au, Pd, Pt Cu, Cr, Zn, and any mixture thereof, at least one solvent of said precursor and at least one photo-initiator, wherein the concentration of the precursor is of at least 0.6% by weight relative to the weight of the liquid composition; b) depositing said liquid composition on a substrate thereby forming a liquid composition deposited on a substrate ; c) irradiating with a UV, Vis and IR source the liquid composition deposited on a substrate obtained at step b) thereby forming a metal layer comprising or consisting of said metal; d) obtaining a metal layer in contact with said substrate.
A carbon dioxide conversion device including: one or more solid oxide fuel cells and one or more solid oxide electrolyser cells , each cell having an electrolyte layer joining a cathode and an anode, the one or more fuel cell cathodes being electrically connected to the one or more electrolyser cell anodes , and the one or more fuel cell anodes being electrically connected to the one or more electrolyser cell cathodes ; the one or more fuel cell cathodes being located in a first gas zone of the device, and the one or more fuel cell anodes , the one or more electrolyser cathodes and the one or more electrolyser anodes being located in a second gas zone of the device; a first gas supply route for supplying a flow of oxygen to the first gas zone ; a second gas supply route for supplying a flow of a hydrocarbon fuel and carbon dioxide to the second gas zone ; and a gas removal route for removing a flow of a syngas of carbon monoxide and hydrogen away from the second gas zone ; wherein the one or more solid oxide fuel cells oxidise the hydrocarbon fuel to the syngas, and the one or more solid oxide electrolyser cells convert the carbon dioxide and hydrocarbon fuel to the syngas. one or more solid oxide fuel cells and one or more solid oxide electrolyser cells , each cell having an electrolyte layer joining a cathode and an anode, the one or more fuel cell cathodes being electrically connected to the one or more electrolyser cell anodes , and the one or more fuel cell anodes being electrically connected to the one or more electrolyser cell cathodes ; the one or more fuel cell cathodes being located in a first gas zone of the device, and the one or more fuel cell anodes , the one or more electrolyser cathodes and the one or more electrolyser anodes being located in a second gas zone of the device; a first gas supply route for supplying a flow of oxygen to the first gas zone ; a second gas supply route for supplying a flow of a hydrocarbon fuel and carbon dioxide to the second gas zone ; and a gas removal route for removing a flow of a syngas of carbon monoxide and hydrogen away from the second gas zone ; wherein the one or more solid oxide fuel cells oxidise the hydrocarbon fuel to the syngas, and the one or more solid oxide electrolyser cells convert the carbon dioxide and hydrocarbon fuel to the syngas.
Vehicle inductive charging apparatus having a receiving coil arrangement (SA1, SA2, SA3, SA4, SA5, SA6) for inductively charging a vehicle, wherein the receiving coil arrangement (SA1, SA2, SA3, SA4, SA5, SA6) comprises: - an outer ferrite core (FK1) which is formed so as to enclose a surface area (FL); - an inner ferrite core (FK2) which is physically connected to the outer ferrite core (FK1) by means of at least one connecting point (VS) and extends in the surface area (FL) from this connecting point (VS), characterized in that - the receiving coil arrangement (SA1, SA2, SA3, SA4, SA5, SA6) further comprises an outer coil (SP1) which is wound around the outer ferrite core (FK1) along a direction of longitudinal extent (ER1) of the outer ferrite core (FK1). - an outer ferrite core (FK1) which is formed so as to enclose a surface area (FL); - an inner ferrite core (FK2) which is physically connected to the outer ferrite core (FK1) by means of at least one connecting point (VS) and extends in the surface area (FL) from this connecting point (VS), - the receiving coil arrangement (SA1, SA2, SA3, SA4, SA5, SA6) further comprises an outer coil (SP1) which is wound around the outer ferrite core (FK1) along a direction of longitudinal extent (ER1) of the outer ferrite core (FK1).
A nonwoven sleeve for routing and protecting elongate members and providing an acoustic barrier to the elongate members , comprising: a tubular wall having opposite lengthwise extending sides bonded to one another along a bonded seam to form a circumferentially enclosed inner cavity extending along a longitudinal axis between opposite ends , said tubular wall having an outer layer and a smooth inner layer , characterized in that said outer layer is nonwoven and said smooth inner layer is a scrim layer which is provided at least in part as a polymeric fibrous material and is bonded to an inner surface of said outer nonwoven layer , said bonded seam including melted material of said smooth inner scrim layer . a tubular wall having opposite lengthwise extending sides bonded to one another along a bonded seam to form a circumferentially enclosed inner cavity extending along a longitudinal axis between opposite ends , said tubular wall having an outer layer and a smooth inner layer , characterized in that said outer layer is nonwoven and said smooth inner layer is a scrim layer which is provided at least in part as a polymeric fibrous material and is bonded to an inner surface of said outer nonwoven layer , said bonded seam including melted material of said smooth inner scrim layer .
Chocolate spread and/or filling composition comprising cocoa butter, cocoa mass and/or cocoa powder; one or more ingredients selected from hazelnut paste, milk fat, milk powder, vanilla, and lecithin, 2% to 40 % by weight of a fat composition; 30% to 50% by weight of sugar; wherein the fat composition comprises at least 40 % by weight of interesterified shea olein and optionally up to 60% by weight of a liquid vegetable oil; wherein the interesterified shea olein has - an oleic acid content of at least 50 % by weight and - a stearic acid content of at least 25% by weight, based on the total C12 to C20 fatty acids present in the interesterified shea olein, and - wherein the interesterified shea olein has a solid fat content of at least 10 % at 10°C, at least 6 % at 20°C, and at least 3 % at 30°C. cocoa butter, cocoa mass and/or cocoa powder; one or more ingredients selected from hazelnut paste, milk fat, milk powder, vanilla, and lecithin, 2% to 40 % by weight of a fat composition; 30% to 50% by weight of sugar; wherein the fat composition comprises at least 40 % by weight of interesterified shea olein and optionally up to 60% by weight of a liquid vegetable oil; wherein the interesterified shea olein has - an oleic acid content of at least 50 % by weight and - a stearic acid content of at least 25% by weight, based on the total C12 to C20 fatty acids present in the interesterified shea olein, and - wherein the interesterified shea olein has a solid fat content of at least 10 % at 10°C, at least 6 % at 20°C, and at least 3 % at 30°C. - an oleic acid content of at least 50 % by weight and - a stearic acid content of at least 25% by weight, based on the total C12 to C20 fatty acids present in the interesterified shea olein, and - wherein the interesterified shea olein has a solid fat content of at least 10 % at 10°C, at least 6 % at 20°C, and at least 3 % at 30°C.
Cooking appliance comprising a cooking enclosure , a support configured to directly or indirectly receive food to cook and a mechanism configured to guide the support towards the outside of the enclosure according to a rectilinear path (F1) and, conversely, towards the inside of the enclosure, characterised in that the mechanism comprises: - at least one first articulated arm of which a first end is mounted in pivot connection about a first axis (X1, X'1) opposite the enclosure and a second end is mounted in pivot connection about a second axis (X2, X'2) opposite the support , said first and second axes being parallel to one another and defined respectively in first and second planes (P1, P2) perpendicular to said rectilinear path (F1), - at least one second articulated arm of which a first end is mounted in pivot connection about a third axis (X3) opposite the enclosure and a second end is mounted in pivot connection about a fourth axis (X4) opposite the support, said third and fourth axes being parallel to one another and defined respectively in third and fourth planes (P3, P4) perpendicular to said rectilinear path, - the first and second axes (X1, X2, X'1, X'2) being inclined with respect to the third and fourth axes (X3, X4). - at least one first articulated arm of which a first end is mounted in pivot connection about a first axis (X1, X'1) opposite the enclosure and a second end is mounted in pivot connection about a second axis (X2, X'2) opposite the support , said first and second axes being parallel to one another and defined respectively in first and second planes (P1, P2) perpendicular to said rectilinear path (F1), - at least one second articulated arm of which a first end is mounted in pivot connection about a third axis (X3) opposite the enclosure and a second end is mounted in pivot connection about a fourth axis (X4) opposite the support, said third and fourth axes being parallel to one another and defined respectively in third and fourth planes (P3, P4) perpendicular to said rectilinear path, - the first and second axes (X1, X2, X'1, X'2) being inclined with respect to the third and fourth axes (X3, X4).
A method of manufacturing a display panel, the method comprising: forming a mother panel on a base substrate ; attaching an upper passivation film to the mother panel (S101); detaching the base substrate from the mother panel (S102); attaching a lower film to the mother panel (S103); and cutting the mother panel to which the upper passivation film and the lower film are attached to form the display panel , the display panel being in a form of a cell unit (S104), wherein the display panel includes a display substrate , a display device layer formed on the display substrate , and a thin film encapsulation layer formed on the display device layer , the upper passivation film is attached to the thin film encapsulation layer , the thin film encapsulation layer is formed by alternately laminating one or more organic layers and one or more inorganic layers, and the method further comprises: removing the upper passivation film from the thin film encapsulation layer of the display panel after being in the form of the cell unit (S105) and attaching a functional layer to the thin film encapsulation layer (S106). forming a mother panel on a base substrate ; attaching an upper passivation film to the mother panel (S101); detaching the base substrate from the mother panel (S102); attaching a lower film to the mother panel (S103); and cutting the mother panel to which the upper passivation film and the lower film are attached to form the display panel , the display panel being in a form of a cell unit (S104), wherein the display panel includes a display substrate , a display device layer formed on the display substrate , and a thin film encapsulation layer formed on the display device layer , the upper passivation film is attached to the thin film encapsulation layer , the thin film encapsulation layer is formed by alternately laminating one or more organic layers and one or more inorganic layers, and the method further comprises: removing the upper passivation film from the thin film encapsulation layer of the display panel after being in the form of the cell unit (S105) and attaching a functional layer to the thin film encapsulation layer (S106). removing the upper passivation film from the thin film encapsulation layer of the display panel after being in the form of the cell unit (S105) and attaching a functional layer to the thin film encapsulation layer (S106).
A humanized monoclonal anti-human-PD-1 antibody or an antigen-binding fragment thereof comprising: (a) a VH comprising or consisting of an amino acid sequence of SEQ ID NO: 21; and (b) a VL comprising or consisting of an amino acid sequence of SEQ ID NO: 24 wherein the antibody or antigen binding fragment thereof is an antagonist of the binding of human PD-L1 and/or PD-L2 to human PD-1.
Sensor unit with a sensor and a circuit board , on which the sensor is disposed, wherein the sensor comprises a sensor element for measuring a physical variable, wherein the sensor comprises at least one elastic damping element that damps external interference oscillations and the at least one elastic damping element comprises means (14.1') for electrical and/or mechanical contacting of the sensor element , characterized in that the at least one elastic damping element is implemented as an elastic conductive glue connection (14.1') having a specified viscosity and/or ductility, wherein the at least one conductive glue connection (14.1') is introduced between the circuit board and the sensor element in order to connect the sensor element electrically and mechanically to the circuit board .
A tire comprising: a bead core ; a bead filler which extends to an outer side in a tire radial direction of the bead core ; a carcass ply which extends from the bead core to another bead core and is folded around the bead core ; a pad member which is disposed at an outer side in a tire-width direction of the bead filler ; characterised by a first rubber sheet disposed between the bead filler and the pad member in a state covering a folding end of the carcass ply which is folded back, and a second rubber sheet covering an electronic component is disposed between the bead filler and the pad member , on an outer side in the tire-radial direction of the first rubber sheet . a bead core ; a bead filler which extends to an outer side in a tire radial direction of the bead core ; a carcass ply which extends from the bead core to another bead core and is folded around the bead core ; a pad member which is disposed at an outer side in a tire-width direction of the bead filler ; characterised by a first rubber sheet disposed between the bead filler and the pad member in a state covering a folding end of the carcass ply which is folded back, and a second rubber sheet covering an electronic component is disposed between the bead filler and the pad member , on an outer side in the tire-radial direction of the first rubber sheet .