mhurhangee/ep-ind-claims huggingface dataset:
A method for assembling a braided stent system comprising one or more expansion rings and a braided stent body, the method comprising: assembling the one or more expansion rings with a lumen of the braided stent body, the lumen of the braided stent body being formed by a plurality of braided members with interstices formed therebetween; selectively attaching each of the one or more expansion rings with inner and outer surfaces of the lumen of the braided stent body, each of the one or more expansion rings imparting an outwardly expanding radial force to the braided stent body thereby maintaining the lumen of the braided stent body in an opened position, each of the one or more expansion rings comprising: a plurality of elongate members (28,30) joined at a coupling and at first and second intersections opposite the coupling; and at least one clip extended from the intersections and operable to secure the frame to the inner and outer surfaces of the lumen; slidably attaching a plurality of outer strut members of the clip to the inner surface of the lumen, each outer strut member being aligned and extended from the first intersection and joined at an end opposite the first intersection; and slidably attaching a plurality of center strut members of the clip to the outer surface of the lumen, each center strut member being disposed in a gap formed between the outer strut members, the center strut members being aligned and extended from the second intersection. assembling the one or more expansion rings with a lumen of the braided stent body, the lumen of the braided stent body being formed by a plurality of braided members with interstices formed therebetween; selectively attaching each of the one or more expansion rings with inner and outer surfaces of the lumen of the braided stent body, each of the one or more expansion rings imparting an outwardly expanding radial force to the braided stent body thereby maintaining the lumen of the braided stent body in an opened position, each of the one or more expansion rings comprising: a plurality of elongate members (28,30) joined at a coupling and at first and second intersections opposite the coupling; and at least one clip extended from the intersections and operable to secure the frame to the inner and outer surfaces of the lumen; slidably attaching a plurality of outer strut members of the clip to the inner surface of the lumen, each outer strut member being aligned and extended from the first intersection and joined at an end opposite the first intersection; and slidably attaching a plurality of center strut members of the clip to the outer surface of the lumen, each center strut member being disposed in a gap formed between the outer strut members, the center strut members being aligned and extended from the second intersection.
A gas sensor comprising at least one platform comprising two nanoelectrodes with a width of less than 1 μm separated by a nanogap of less than 1 μm, and at least one nanoparticle with a size of 1-500 nm situated between the nanoelectrodes, characterised in that the platform further comprises at least two molecules connecting the at least one nanoparticle to the nanoelectrodes, creating a network connecting the two nanoelectrodes such that a molecular junction is established, wherein the at least two molecules are sensing molecules suitable for sensing gas.
Heating device for locally heating of an injection mold cavity wall, comprising: - a base plate, - an actuator located on the base plate to perform a linear movement; - a heated stamp connected to the actuator and driven by the actuator, to perform a linear movement in direction to and from the injection mold cavity wall; wherein the heated stamp is located below the base plate and the actuator, and wherein the base plate comprises an opening through which a pin extends for transferring the linear movement from the actuator to the heated stamp, characterised in that the base plate is integrally formed in a manifold of a hot runner system, so that it is part of the manifold. - a base plate, - an actuator located on the base plate to perform a linear movement; - a heated stamp connected to the actuator and driven by the actuator, to perform a linear movement in direction to and from the injection mold cavity wall;
Method of manufacturing a capacitor, comprising the successive steps of: a) forming a stack comprising, in the order from the upper surface of a substrate, a first conductive layer made of aluminum or an aluminum-based alloy, a first electrode, a first dielectric layer, and a second electrode; b) etching, by chemical plasma etching, an upper portion of the stack, said chemical plasma etching being interrupted before the upper surface of the first conductive layer; and c) etching, by physical plasma etching, a lower portion of the stack, said physical plasma etching being interrupted on the upper surface of the first conductive layer. a) forming a stack comprising, in the order from the upper surface of a substrate, a first conductive layer made of aluminum or an aluminum-based alloy, a first electrode, a first dielectric layer, and a second electrode; b) etching, by chemical plasma etching, an upper portion of the stack, said chemical plasma etching being interrupted before the upper surface of the first conductive layer; and c) etching, by physical plasma etching, a lower portion of the stack, said physical plasma etching being interrupted on the upper surface of the first conductive layer.
Method for producing a carbon fiber-reinforced molded article (10, 40) comprising a base material (12, 42) and a composite material dispersed in the base material (12, 42), the method comprising: immersing a fiber bundle including carbon fibers in a dispersion in which a plurality of carbon nanotubes isolatedly dispersed while imparting mechanical energy to the dispersion to attach the plurality of carbon nanotubes to a surface of each of the carbon fibers by a van der Waals force, and then withdrawing the fiber bundle from the dispersion and drying the fiber bundle to attach the plurality of carbon nanotubes directly to the surface of the carbon fibers at an attaching portion, thereby forming a structure having a network structure in which the plurality of carbon nanotubes are directly connected to one another on the surface of each of the carbon fibers in the fiber bundle; immersing the fiber bundle including the carbon fibers each having the structure in a solution of an epoxy resin, and then heating the fiber bundle to cure the epoxy resin, thereby forming a binding member constituted by a cured product of the epoxy resin on at least a portion other than the attaching portion of the plurality of carbon nanotubes, and bounding the plurality of carbon nanotubes physically to the carbon fibers to obtain a composite material; and cutting the composite material, and then mixing and kneading the composite material with thermoplastic resin chips as the raw material of the base material (12, 42). immersing a fiber bundle including carbon fibers in a dispersion in which a plurality of carbon nanotubes isolatedly dispersed while imparting mechanical energy to the dispersion to attach the plurality of carbon nanotubes to a surface of each of the carbon fibers by a van der Waals force, and then withdrawing the fiber bundle from the dispersion and drying the fiber bundle to attach the plurality of carbon nanotubes directly to the surface of the carbon fibers at an attaching portion, thereby forming a structure having a network structure in which the plurality of carbon nanotubes are directly connected to one another on the surface of each of the carbon fibers in the fiber bundle; immersing the fiber bundle including the carbon fibers each having the structure in a solution of an epoxy resin, and then heating the fiber bundle to cure the epoxy resin, thereby forming a binding member constituted by a cured product of the epoxy resin on at least a portion other than the attaching portion of the plurality of carbon nanotubes, and bounding the plurality of carbon nanotubes physically to the carbon fibers to obtain a composite material; and cutting the composite material, and then mixing and kneading the composite material with thermoplastic resin chips as the raw material of the base material (12, 42).
A machining cutting tool having a carrier tool, a clamping finger, a clamping screw and a cutting insert (5, 9), wherein the carrier tool has a recess to receive the cutting insert (5, 9) having a clamping trough on the cutting face, the cutting insert (5, 9) is held by the clamping finger with a lug in the carrier tool, the clamping finger is secured on the carrier tool by way of the clamping screw in such a way that when the clamping screw is tightened the clamping finger draws the cutting insert (5, 9) into the recess, and arranged on the lug there is a sickle-shaped engagement element for engagement into the clamping trough of the cutting insert (5, 9), characterised in that a) the clamping screw has a clamping head which overhangs with respect to its shank, wherein the clamping head sits on a locating surface of the clamping finger that is angled with respect to the axis of the clamping screw, and the angled locating surface is arranged in such a way that the force of pressure of the clamping finger on the cutting insert (5, 9) is intensified, and b) the lug of the clamping finger has a clamping surface to rest on the cutting face of the cutting insert (5, 9), the clamping surface is formed on the lug of the clamping finger in a geometry that differs from a circle and engages into a depression on the cutting face of the cutting insert (5, 9) that corresponds to the negative form of the clamping surface, and the engagement element is arranged on the clamping surface, and the clamping trough is arranged within the depression. a) the clamping screw has a clamping head which overhangs with respect to its shank, wherein the clamping head sits on a locating surface of the clamping finger that is angled with respect to the axis of the clamping screw, and the angled locating surface is arranged in such a way that the force of pressure of the clamping finger on the cutting insert (5, 9) is intensified, and b) the lug of the clamping finger has a clamping surface to rest on the cutting face of the cutting insert (5, 9), the clamping surface is formed on the lug of the clamping finger in a geometry that differs from a circle and engages into a depression on the cutting face of the cutting insert (5, 9) that corresponds to the negative form of the clamping surface, and the engagement element is arranged on the clamping surface, and the clamping trough is arranged within the depression.
A method of preparing copanlisib: comprising the following step A9: wherein a compound of formula: is allowed to react with a compound of formula: thereby providing copanlisib: said compound of formula: being prepared by the following step A8: wherein a compound of formula: is allowed to react with a compound of formula: in a solvent, thereby providing a compound of formula; said compound of formula: being prepared by the following step A7: wherein a compound of formula: is allowed to react with a reducing agent, thereby providing a compound of formula; said compound of formula: being prepared by the following step A6: wherein a compound of formula: is allowed to react with an annelating agent, thereby providing a compound of formula; said compound of formula: being prepared by the following step A5: wherein a compound of formula: is allowed to react with a reducing agent, thereby providing a compound of formula.
A patient support apparatus comprising: a frame; a deck supported by the frame, the deck to support a patient in at least a horizontal position; and a moisture management apparatus supported by the frame or the deck, the moisture management apparatus comprising: a moisture absorbent pad supported by the patient support apparatus; a moisture-responsive sensor coupled to the moisture absorbent pad, to detect the presence of patient-produced moisture in an area supported by the frame or the deck, wherein, the moisture-responsive sensor includes an RFID sensor and a moisture directing circuit connected to the RFID sensor by a proximal end and terminating at a distal end, the moisture directing circuit extending away from the RFID sensor in a serpentine pattern between the proximal end and the distal end; and electrical circuitry to communicate a moisture detection indication to a user interface device in response to a detecting by the sensor of patient-produced moisture in the area supported by the frame or the deck. a frame; a deck supported by the frame, the deck to support a patient in at least a horizontal position; and a moisture management apparatus supported by the frame or the deck, the moisture management apparatus comprising: a moisture absorbent pad supported by the patient support apparatus; a moisture-responsive sensor coupled to the moisture absorbent pad, to detect the presence of patient-produced moisture in an area supported by the frame or the deck, wherein, the moisture-responsive sensor includes an RFID sensor and a moisture directing circuit connected to the RFID sensor by a proximal end and terminating at a distal end, the moisture directing circuit extending away from the RFID sensor in a serpentine pattern between the proximal end and the distal end; and electrical circuitry to communicate a moisture detection indication to a user interface device in response to a detecting by the sensor of patient-produced moisture in the area supported by the frame or the deck. a moisture absorbent pad supported by the patient support apparatus; a moisture-responsive sensor coupled to the moisture absorbent pad, to detect the presence of patient-produced moisture in an area supported by the frame or the deck, wherein, the moisture-responsive sensor includes an RFID sensor and a moisture directing circuit connected to the RFID sensor by a proximal end and terminating at a distal end, the moisture directing circuit extending away from the RFID sensor in a serpentine pattern between the proximal end and the distal end; and electrical circuitry to communicate a moisture detection indication to a user interface device in response to a detecting by the sensor of patient-produced moisture in the area supported by the frame or the deck.
Process for synthesizing a polymer bearing at least one phosphonate group in the polymer chain, said process comprising at least the reaction of a starting polymer bearing at least one nucleophilic function in the polymer chain with at least one electrophilic compound bearing both a phosphonate group and an electrophilic function characterized in that the electrophilic compound bearing both a phosphonate group and an electrophilic function has the general formula A-B-X in which: - A represents an electrophilic function selected from the halide function, the acyl halide function, the acyl chloride function, the carboxylic acid function, the ester function and the isocyanate function, - B is a spacer representing a (C 1 -C 24)alkanediyl, - X represents a phosphonate group -P (OR 1)(OR 2) with R 1 and R 2 being identical or different and selected from a hydrogen atom or a hydrocarbon-based chain having from 1 to 6 carbon atoms. - A represents an electrophilic function selected from the halide function, the acyl halide function, the acyl chloride function, the carboxylic acid function, the ester function and the isocyanate function, - B is a spacer representing a (C 1 -C 24)alkanediyl, - X represents a phosphonate group -P (OR 1)(OR 2) with R 1 and R 2 being identical or different and selected from a hydrogen atom or a hydrocarbon-based chain having from 1 to 6 carbon atoms.
A method of forming a strengthened fluid conduit (14, 114, 214, 314), the method comprising: providing a sacrificial material into a mold of the fluid conduit (14, 114, 214, 314) having an outer surface; disposing a strengthening insert having an inner surface and an outer surface, opposite and spaced from the inner surface, such that the strengthening insert inner surface abuts the mold outer surface; forming the fluid conduit (14, 114, 214, 314) by way of electrodeposition of a metallic layer over the exposed mold outer surface and the exposed strengthening insert outer surface; and removing the sacrificial material to define the fluid conduit (14, 114, 214, 314). providing a sacrificial material into a mold of the fluid conduit (14, 114, 214, 314) having an outer surface; disposing a strengthening insert having an inner surface and an outer surface, opposite and spaced from the inner surface, such that the strengthening insert inner surface abuts the mold outer surface; forming the fluid conduit (14, 114, 214, 314) by way of electrodeposition of a metallic layer over the exposed mold outer surface and the exposed strengthening insert outer surface; and removing the sacrificial material to define the fluid conduit (14, 114, 214, 314).
An agricultural composition comprising: a) at least one nitrogen containing isethionic acid salt or a nitrogen containing isethionic methyl acid salt, b) at least one plant protection product, selected from the group consisting of glyphosate and glufosinate, and c) at least one surfactant, and d) optionally at least one inert ingredient wherein the agricultural composition is a stable agricultural formulation being a soluble concentrate, characterized in that the at least one nitrogen containing isethionic acid salt comprises a cationic nitrogen containing group being an alkyl amine, an alkylalkanolamine, a cyclic amine, ammonium, a fatty amine, an alkoxylated fatty amine, an alkyldiamine, an alkoxylated alkyldiamine, an alkylpolyamine, an alkoxylated alkylpolyamine, an ethyleneamine, an ethanolamine, a morpholine, a substituted propylamine, a polyol amine or a combination thereof. a) at least one nitrogen containing isethionic acid salt or a nitrogen containing isethionic methyl acid salt, b) at least one plant protection product, selected from the group consisting of glyphosate and glufosinate, and c) at least one surfactant, and d) optionally at least one inert ingredient
A fiber management frame for a fiber optic closure comprising: a fiber management interface including at least one first interface surface defining a first slack storage area for a first group of optical fibers; and a tray holder including at least one second interface surface configured to mate with the at least one first interface surface, at least one primary cantilevered surface defining a second slack storage area offset from the fiber management interface for a second group of optical fibers, and at least one secondary cantilevered surface offset from the at least one primary cantilevered surface and defining at least one tray mounting area offset from the fiber management interface, wherein the tray holder is configured to be removably mounted to the fiber management interface with the at least one second interface surface abutting the at least one first interface surface but without interfering with the first group of optical fibers, and the tray holder is further configured to removably mount to at least one fiber optic tray in the at least one tray mounting area. a fiber management interface including at least one first interface surface defining a first slack storage area for a first group of optical fibers; and a tray holder including at least one second interface surface configured to mate with the at least one first interface surface, at least one primary cantilevered surface defining a second slack storage area offset from the fiber management interface for a second group of optical fibers, and at least one secondary cantilevered surface offset from the at least one primary cantilevered surface and defining at least one tray mounting area offset from the fiber management interface, wherein the tray holder is configured to be removably mounted to the fiber management interface with the at least one second interface surface abutting the at least one first interface surface but without interfering with the first group of optical fibers, and the tray holder is further configured to removably mount to at least one fiber optic tray in the at least one tray mounting area.
A communication method of a secondary Base Station, BS, comprising: transmitting, to a User Equipment, UE, a plurality of Packet Data Convergence Protocol, PDCP, Protocol Data Units, PDUs, received from a master BS; transmitting to the master BS a downlink data transmission state message indicating PDCP PDUs that have been successfully transmitted by the secondary BS to the UE among the plurality of PDCP PDUs received from the master BS; and storing in the secondary BS respective sequence numbers of the PDCP PDUs that have been successfully transmitted to the UE. transmitting, to a User Equipment, UE, a plurality of Packet Data Convergence Protocol, PDCP, Protocol Data Units, PDUs, received from a master BS; transmitting to the master BS a downlink data transmission state message indicating PDCP PDUs that have been successfully transmitted by the secondary BS to the UE among the plurality of PDCP PDUs received from the master BS; and storing in the secondary BS respective sequence numbers of the PDCP PDUs that have been successfully transmitted to the UE.
Measuring system for detecting the fill level of an adhesive tank from which adhesive is discharged at least occasionally with the aid of a conveying medium, with a sensor by means of which a measuring signal can be generated at least every so often as a function of a status value of the conveying medium, and with an evaluation unit, which is designed to receive the measurement signal and to determine a filling level of the adhesive tank on the basis of the measurement signal, characterised in that the sensor is designed, such that the conveying medium flows through it, and has an actuating element which can be moved at least temporarily when there is a change in pressure acting on the actuating element.
Method for controlling a spark-ignition internal combustion engine defining an engine speed ( N mot), a load and a scavenging rate ( T x), to prevent the appearance of knocking in a cylinder of the engine, the engine comprising: - a particle filter, and - a calculator which method establishes an ignition advance correction as a function of engine speed ( N mot) and load, the method being characterized in that a loading factor of the particle filter is established as a function of a pressure differential (dP) measured at the terminals of the particle filter and of the scanning rate ( T x) of the engine, and that a preventive ignition advance correction ( A p) necessary to avoid the knocking phenomenon is calculated during a phase in which the correction of ignition advance is multiplied by the loading factor, the preventive ignition advance correction ( A p) then being carried out by the computer. - a particle filter, and - a calculator which method establishes an ignition advance correction as a function of engine speed ( N mot) and load, the method being characterized in that a loading factor of the particle filter is established as a function of a pressure differential (dP) measured at the terminals of the particle filter and of the scanning rate ( T x) of the engine, and that a preventive ignition advance correction ( A p) necessary to avoid the knocking phenomenon is calculated during a phase in which the correction of ignition advance is multiplied by the loading factor, the preventive ignition advance correction ( A p) then being carried out by the computer.