mhurhangee/ep-ind-claims huggingface dataset:
A fastener-driving tool comprising: a cylinder defining one or more openings therethrough; a return chamber in fluid communication with the cylinder via the one or more openings; a driver blade receiving opening; a driving element including a driver blade having a non-uniform cross-section; and a piston within the cylinder and attached to the driving element such that the driver blade is slidably received in the driver blade receiving opening, characterised in that the fastener-driving tool further comprises a driver blade seal defining the driver blade receiving opening, and in that the non-uniform cross-section is such that the piston is movable relative to the cylinder and the driver blade seal between: a first position in which a first part of the driver blade occupies a first portion of the driver blade receiving opening; and a second position in which a second part of the driver blade occupies a second portion of the driver blade receiving opening that is larger than the first portion. a cylinder defining one or more openings therethrough; a return chamber in fluid communication with the cylinder via the one or more openings; a driver blade receiving opening; a driving element including a driver blade having a non-uniform cross-section; and a piston within the cylinder and attached to the driving element such that the driver blade is slidably received in the driver blade receiving opening, characterised in that the fastener-driving tool further comprises a driver blade seal defining the driver blade receiving opening, and in that the non-uniform cross-section is such that the piston is movable relative to the cylinder and the driver blade seal between: a first position in which a first part of the driver blade occupies a first portion of the driver blade receiving opening; and a second position in which a second part of the driver blade occupies a second portion of the driver blade receiving opening that is larger than the first portion.
Radiator for heating a room, said radiator comprising an electric heating element electrically connected to an electric power source and thermally connected to said radiator, a temperature limiter being provided for limiting a surface temperature of said radiator during radiator operation by temporarily switching off said electric heating element, wherein said radiator comprises a first electric heating element and a second electric heating element, each electrically connected to said electric power source characterized in that said temperature limiter being configured for temporarily switching off said second electric heating element while maintaining the electric power flow to said first electric heating element when the surface temperature of the radiator reaches a value above an upper threshold temperature.
An aqueous composition comprising about 6.8 grams to about 8.3 grams of tranexamic acid; about 29.3 grams to about 35.8 grams of polyethylene glycol; about 25 grams to about 31 grams of glucose; and one or more electrolytes, wherein the aqueous composition is formulated in an amount of: (i) about 630 mL to about 770 mL; or (ii) about 700 mL; wherein the term "about" means ± 10% of each numerical value. (i) about 630 mL to about 770 mL; or (ii) about 700 mL;
Process for the preparation of a composite for thermal insulation comprising at least layers, and a binder layer located between layers and, the process comprising the steps of (i) providing (ia) layer containing from 25 to 95% by weight of aerogel and from 5 to 75% by weight of fibers and from 0 to 70% by weight of fillers and (ib) layer containing from 25 to 95% by weight of aerogel and from 5 to 75% by weight of fibers and from 0 to 70% by weight of fillers; (ii) applying a composition comprising an inorganic binder on one surface of the layer or layer or layer and; (iii) combining layer and layer in a manner that composition is located between layer and, wherein composition is applied in the form of a foam. (i) providing (ia) layer containing from 25 to 95% by weight of aerogel and from 5 to 75% by weight of fibers and from 0 to 70% by weight of fillers and (ib) layer containing from 25 to 95% by weight of aerogel and from 5 to 75% by weight of fibers and from 0 to 70% by weight of fillers; (ia) layer containing from 25 to 95% by weight of aerogel and from 5 to 75% by weight of fibers and from 0 to 70% by weight of fillers and (ib) layer containing from 25 to 95% by weight of aerogel and from 5 to 75% by weight of fibers and from 0 to 70% by weight of fillers; (ii) applying a composition comprising an inorganic binder on one surface of the layer or layer or layer and; (iii) combining layer and layer in a manner that composition is located between layer and,
A system for mapping cardiac electrical activity, comprising: a lateness analysis processor configured to: receive, as input, an electrical signal indicative of electrical activity at a location on a patient's heart; analyze the electrical signal to identify a late activation (Late-A) attribute of the electrical signal wherein the late activation attribute is measured from the last large deflection indicating the end of major local depolarization to the end of low amplitude activity at that site indicating the end of nearby depolarizations of small myocardial fibers; and designate the location on the patient's heart as a therapy target when the late activation attribute of the electrical signal exceeds a lateness threshold. a lateness analysis processor configured to: receive, as input, an electrical signal indicative of electrical activity at a location on a patient's heart; analyze the electrical signal to identify a late activation (Late-A) attribute of the electrical signal wherein the late activation attribute is measured from the last large deflection indicating the end of major local depolarization to the end of low amplitude activity at that site indicating the end of nearby depolarizations of small myocardial fibers; and designate the location on the patient's heart as a therapy target when the late activation attribute of the electrical signal exceeds a lateness threshold. receive, as input, an electrical signal indicative of electrical activity at a location on a patient's heart; analyze the electrical signal to identify a late activation (Late-A) attribute of the electrical signal wherein the late activation attribute is measured from the last large deflection indicating the end of major local depolarization to the end of low amplitude activity at that site indicating the end of nearby depolarizations of small myocardial fibers; and designate the location on the patient's heart as a therapy target when the late activation attribute of the electrical signal exceeds a lateness threshold.
A core component made of a sintered body of an inorganic powder, the core component comprising: a columnar winding portion for winding a conductive wire around the columnar winding portion, the columnar winding portion having a first axial end and a second axial end; a flange portion integrally formed with the columnar winding portion at both axial ends of the columnar winding portion, wherein the flange portion includes, in a cross section orthogonal to an axial center, a first region including a curved outer peripheral surface having a first radius of curvature and a second region including a curved surface having a second radius of curvature, wherein the second radius of curvature is smaller than the first radius of curvature, and the first region and the second region are connected with each other via a projection. a columnar winding portion for winding a conductive wire around the columnar winding portion, the columnar winding portion having a first axial end and a second axial end; a flange portion integrally formed with the columnar winding portion at both axial ends of the columnar winding portion, wherein the flange portion includes, in a cross section orthogonal to an axial center, a first region including a curved outer peripheral surface having a first radius of curvature and a second region including a curved surface having a second radius of curvature, wherein the second radius of curvature is smaller than the first radius of curvature, and the first region and the second region are connected with each other via a projection.
An in vitro method for enriching for a target DNA molecule from a mixed polynucleotide sample comprising the steps of: a) providing a mixed polynucleotide sample containing said target DNA molecule, wherein said target DNA molecule comprises one or more unique consecutive sequence of at least 10 nucleotides, b) serially diluting said mixed polynucleotide sample until the probability of detecting said target DNA molecule in a diluted sample of mixed polynucleotides is less than 0.75 preferably less than 0.50 or even more preferably less than 0.25, and c) producing a sufficient number of replicates of the diluted sample of mixed polynucleotides until the probability of detecting said target DNA molecule in at least one of the replicate dilution samples is at least 0.75 preferably 0.80 to 0.95; d) amplifying the DNA in said replicate diluted samples to increase the abundance of the DNA in each sample; e) detecting the presence or absence of said target DNA molecule in said replicate dilution samples amplified in step (d), wherein the frequency of said target DNA molecule in said replicate dilution sample is increased compared to the mixed polynucleotide sample in step (a); f) serially diluting at least one replicate dilution sample detected in step e) as containing said DNA molecule until the probability of detecting said target DNA molecule in a diluted sample is less than 0.75, and repeating steps (c) to (e) or (f) at least once. a) providing a mixed polynucleotide sample containing said target DNA molecule, wherein said target DNA molecule comprises one or more unique consecutive sequence of at least 10 nucleotides, b) serially diluting said mixed polynucleotide sample until the probability of detecting said target DNA molecule in a diluted sample of mixed polynucleotides is less than 0.75 preferably less than 0.50 or even more preferably less than 0.25, and c) producing a sufficient number of replicates of the diluted sample of mixed polynucleotides until the probability of detecting said target DNA molecule in at least one of the replicate dilution samples is at least 0.75 preferably 0.80 to 0.95; d) amplifying the DNA in said replicate diluted samples to increase the abundance of the DNA in each sample; e) detecting the presence or absence of said target DNA molecule in said replicate dilution samples amplified in step (d), wherein the frequency of said target DNA molecule in said replicate dilution sample is increased compared to the mixed polynucleotide sample in step (a); f) serially diluting at least one replicate dilution sample detected in step e) as containing said DNA molecule until the probability of detecting said target DNA molecule in a diluted sample is less than 0.75, and repeating steps (c) to (e) or (f) at least once.
A path control device that sets a communication path using a plurality of radio links connecting a plurality of communication devices to each other, the path control device comprising: link information management means for acquiring a first communication quality of each of the plurality of radio links; traffic information management means for acquiring a volume of traffic flowing through the plurality of radio links; and path setting means for setting the communication path of a flow such that the first communication quality of the communication path satisfies a second communication quality required by the flow flowing through the radio links, based on at least one of information of the first communication quality and information of the volume of the traffic; wherein the path setting means is further configured to set a redundant path when a normal path set to the flow does not satisfy a communication quality required by the flow, and upon setting of a path for a new flow, the path setting means is configured to allocate a bandwidth of an existing flow having a priority lower than the priority of the new flow, and to allocate, to the existing flow, a bandwidth having a communication quality lower than that of the bandwidth allocated to the new flow, and in the allocated band, the path setting means is configured to set a redundant path to the existing flow when the second communication quality required by the existing flow is not satisfied. link information management means for acquiring a first communication quality of each of the plurality of radio links; traffic information management means for acquiring a volume of traffic flowing through the plurality of radio links; and path setting means for setting the communication path of a flow such that the first communication quality of the communication path satisfies a second communication quality required by the flow flowing through the radio links, based on at least one of information of the first communication quality and information of the volume of the traffic; wherein the path setting means is further configured to set a redundant path when a normal path set to the flow does not satisfy a communication quality required by the flow, and upon setting of a path for a new flow, the path setting means is configured to allocate a bandwidth of an existing flow having a priority lower than the priority of the new flow, and to allocate, to the existing flow, a bandwidth having a communication quality lower than that of the bandwidth allocated to the new flow, and in the allocated band, the path setting means is configured to set a redundant path to the existing flow when the second communication quality required by the existing flow is not satisfied.
A compound of formula having the following structure: or a stereoisomer, pharmaceutically acceptable salt, oxide, or solvate thereof, wherein R 1 and R 6 are independently optionally present, and when present, each is independently a substituted or unsubstituted C 1 -C 6 alkyl, halogen, -CF 3, or -OCF 3; R 2 is H; R 3 is H; R 4 is an oxygen that forms a carbonyl; R 5 is NH; R 7 is optionally present, and when present is an oxygen forming a pyridine N-oxide; is a single bond; X is N; Y is selected from a bond, CH 2, CH(CH 3), CH 2 CH 2, CH 2 CH(CH 3), and CH(CH 3)CH 2; and Z is an unsubstituted phenyl ring or a phenyl ring substituted with a hydroxyl, -OCF 3, halogen, a nitrile, a benzene ring, C 1 -C 6 alkoxy, or -CONH 2. R 1 and R 6 are independently optionally present, and when present, each is independently a substituted or unsubstituted C 1 -C 6 alkyl, halogen, -CF 3, or -OCF 3; R 2 is H; R 3 is H; R 4 is an oxygen that forms a carbonyl; R 5 is NH; R 7 is optionally present, and when present is an oxygen forming a pyridine N-oxide; is a single bond; X is N; Y is selected from a bond, CH 2, CH(CH 3), CH 2 CH 2, CH 2 CH(CH 3), and CH(CH 3)CH 2; and Z is an unsubstituted phenyl ring or a phenyl ring substituted with a hydroxyl, -OCF 3, halogen, a nitrile, a benzene ring, C 1 -C 6 alkoxy, or -CONH 2.
A method of assembling a hermetically sealed printed circuit board, the method comprising: securing a first end portion of a wall of a cap to a substrate around an electrical contact region of the substrate, the wall including a second end portion disposed in an open configuration; mounting an electronic component to the electrical contact region of the substrate; and sealing the second end portion of the wall closed to form a hermetically sealed chamber between the substrate and the cap to encase the electronic component therein, characterized by applying a coating over the electronic components prior to sealing the open end of the wall. securing a first end portion of a wall of a cap to a substrate around an electrical contact region of the substrate, the wall including a second end portion disposed in an open configuration; mounting an electronic component to the electrical contact region of the substrate; and sealing the second end portion of the wall closed to form a hermetically sealed chamber between the substrate and the cap to encase the electronic component therein, characterized by applying a coating over the electronic components prior to sealing the open end of the wall.
Method for generating image data of an object by means of a particle beam, the method comprising the following steps: - arranging at least one marking (103, 104) in the object or in a support material in which the object is embedded; - determining at least one examination region of the object using beams, wherein the object and/or the support material is/are embodied in a manner transparent to the beams, wherein the examination region of the object is determined relative to the marking (103, 104); - exposing the examination region by removing material of the object and/or of the support material; - guiding a first particle beam over the exposed examination region; and - acquiring image data of the exposed examination region using at least one detector (22, 23) by detecting interaction particles and/or interaction radiation due to an interaction of the first particle beam with the exposed examination region, characterized in that the examination region is determined using light beams in the visible range and/or using x-ray beams. - arranging at least one marking (103, 104) in the object or in a support material in which the object is embedded; - determining at least one examination region of the object using beams, wherein the object and/or the support material is/are embodied in a manner transparent to the beams, wherein the examination region of the object is determined relative to the marking (103, 104); - exposing the examination region by removing material of the object and/or of the support material; - guiding a first particle beam over the exposed examination region; and - acquiring image data of the exposed examination region using at least one detector (22, 23) by detecting interaction particles and/or interaction radiation due to an interaction of the first particle beam with the exposed examination region,
A method for producing a microcapsule formulation comprising: step A of adding a basic amino acid to an aqueous solvent containing a heavy metal salt of a peptidic physiologically active substance to obtain an amino acid-containing S/W suspension; step B of adding a basic amino acid to an organic solvent containing a biodegradable polymer to obtain an amino acid-containing polymer solution; step C of dispersing the amino acid-containing S/W suspension in the amino acid-containing polymer solution, which is an oil phase, to obtain an S/W/O emulsion; step D of dispersing the S/W/O emulsion in a water phase to obtain an S/W/O/W emulsion; and step E of removing the organic solvent from the S/W/O/W emulsion to obtain the microcapsule formulation. step A of adding a basic amino acid to an aqueous solvent containing a heavy metal salt of a peptidic physiologically active substance to obtain an amino acid-containing S/W suspension; step B of adding a basic amino acid to an organic solvent containing a biodegradable polymer to obtain an amino acid-containing polymer solution; step C of dispersing the amino acid-containing S/W suspension in the amino acid-containing polymer solution, which is an oil phase, to obtain an S/W/O emulsion; step D of dispersing the S/W/O emulsion in a water phase to obtain an S/W/O/W emulsion; and step E of removing the organic solvent from the S/W/O/W emulsion to obtain the microcapsule formulation.
A method for controlling a vehicle having automatic driving electrical equipment that automatically drives the vehicle, the automatic driving electrical equipment including an electric power steering device configured to carry out automatic driving control for automatically driving the vehicle; other electrical equipment; a battery configured to supply electric power to the automatic driving electrical equipment and the other electrical equipment; and an alternator configured to supply electric power to the automatic driving electrical equipment, the other electrical equipment and the battery; characterized in that the method comprises: upon detecting that the alternator fails during automatic driving using the automatic driving electrical equipment, suppressing electric power supplied from the battery to the other electrical equipment.
An implantable medical device, comprising: a connector enclosure including a base plate having an aperture, the connector enclosure housing at least one electrical connector; a can coupled to the base plate, the can housing electrical circuitry; a filter capacitor coupled to the base plate, the filter capacitor having an aperture and having capacitor forming plates including a ground plate, the ground plate being electrically coupled to the can; and a feedthrough pin electrically coupled to the electrical connector within the connector enclosure, the feedthrough pin extending through the aperture in the base plate and being present in the vicinity of the aperture in the filter capacitor; characterised by: a conductor with a first end being present in the vicinity of the aperture within the filter capacitor and with a second end extending into the can and electrically coupled to the electrical circuitry; and an electrically conductive bonding material being present within the aperture of the filter capacitor and creating an electrically conductive bond among the conductor, the feedthrough pin, and at least one of the capacitor forming plates other than the ground plate. a connector enclosure including a base plate having an aperture, the connector enclosure housing at least one electrical connector; a can coupled to the base plate, the can housing electrical circuitry; a filter capacitor coupled to the base plate, the filter capacitor having an aperture and having capacitor forming plates including a ground plate, the ground plate being electrically coupled to the can; and a feedthrough pin electrically coupled to the electrical connector within the connector enclosure, the feedthrough pin extending through the aperture in the base plate and being present in the vicinity of the aperture in the filter capacitor; characterised by: a conductor with a first end being present in the vicinity of the aperture within the filter capacitor and with a second end extending into the can and electrically coupled to the electrical circuitry; and an electrically conductive bonding material being present within the aperture of the filter capacitor and creating an electrically conductive bond among the conductor, the feedthrough pin, and at least one of the capacitor forming plates other than the ground plate. a conductor with a first end being present in the vicinity of the aperture within the filter capacitor and with a second end extending into the can and electrically coupled to the electrical circuitry; and an electrically conductive bonding material being present within the aperture of the filter capacitor and creating an electrically conductive bond among the conductor, the feedthrough pin, and at least one of the capacitor forming plates other than the ground plate.
An endoprosthesis designed for delivery into a body lumen, the endoprosthesis being formed of a polymer, wherein the polymer of the endoprosthesis includes cross-linked polycyclooctene, wherein the endoprosthesis is in a collapsed state so that the endoprosthesis can be delivered into the body lumen, and wherein the endoprosthesis is capable of reverting from the collapsed state to an expanded state when warmed after delivery to the body lumen.