mhurhangee/ep-ind-claims huggingface dataset:
A composition comprising a plurality of particles, wherein said particles comprise: at least 40% by weight of said particles of a non-germinant carrier wherein the carrier comprises polyethylene glycol, wherein said polyethylene glycol has a weight average molecular weight from about 2000 to about 13000 and wherein the particles comprise more than 40% by weight of said particles of polyethylene glycol; and from 0.0001% to 5% by weight of said particles of a bacterial composition comprising bacterial endospores wherein the endospores comprise bacteria from the genus Bacillus; and wherein each of said particles has a mass between 1 mg to 5000 mg, preferably between 5 mg and 200 mg. at least 40% by weight of said particles of a non-germinant carrier wherein the carrier comprises polyethylene glycol, wherein said polyethylene glycol has a weight average molecular weight from about 2000 to about 13000 and wherein the particles comprise more than 40% by weight of said particles of polyethylene glycol; and from 0.0001% to 5% by weight of said particles of a bacterial composition comprising bacterial endospores wherein the endospores comprise bacteria from the genus Bacillus; and wherein each of said particles has a mass between 1 mg to 5000 mg, preferably between 5 mg and 200 mg.
The use of poly-1,3-dioxepane, poly-1,3-dioxolane, polytetrahydrofurane or mixtures thereof in molding materials comprising polyoxymethylene or a copolymer containing a majority of oxymethylene units, for improving the flexural toughness of moldings formed from the molding materials, wherein a polyoxymethylene copolymer with a weight-average molar mass (M w) of the copolymer in the range from 20 000 to 200 000 g/mol, at least 90% by weight of which, based on the polymer, derived from trioxane and 1,3-dioxepane as monomers and butylal as regulator, with a proportion of 1,3-dioxepane, based on the polymer, in the range from 1 to 30% by weight, and a proportion of butylal, based on the polymer, in the range from 0.01 to 2.5% by weight is employed, the % by weight being based on the copolymer and the molecular weights are determined by size exclusion chromatography.
A chipless RFID tag (31; 41; 51; 91) comprising a plurality of separate parallel conductive strips (35; 45; 55) formed on a dielectric support (33; 43; 53), wherein conductive bridges (38; 48; 58) interconnect neighboring conductive strips, the conductive bridges delimiting, between the conductive strips, dielectric strip portions (39; 49; 59) of different lengths, each dielectric strip portion determining a resonance frequency of the tag, the resonance frequencies of the tag altogether defining an identification code.
A bioadhesive delivery catheter, comprising: a manifold comprising: a delivery device passage including a proximal passage portion and a distal passage portion, the proximal passage portion having a smaller cross-sectional shape than the distal passage portion; an injection port; a tube insertable into the delivery device passage and comprising: first and second lumens positioned side-by-side, the first lumen extending proximal of the second lumen within the delivery device passage, and the second lumen arranged in flow communication with the injection port, the first lumen and second lumen being laterally separated by a separation plane of the tube; a mixing member (137, 139) positioned between a proximal inlet of the injection port and the second lumen. a manifold comprising: a delivery device passage including a proximal passage portion and a distal passage portion, the proximal passage portion having a smaller cross-sectional shape than the distal passage portion; an injection port; a delivery device passage including a proximal passage portion and a distal passage portion, the proximal passage portion having a smaller cross-sectional shape than the distal passage portion; an injection port; a tube insertable into the delivery device passage and comprising: first and second lumens positioned side-by-side, the first lumen extending proximal of the second lumen within the delivery device passage, and the second lumen arranged in flow communication with the injection port, the first lumen and second lumen being laterally separated by a separation plane of the tube; first and second lumens positioned side-by-side, the first lumen extending proximal of the second lumen within the delivery device passage, and the second lumen arranged in flow communication with the injection port, the first lumen and second lumen being laterally separated by a separation plane of the tube; a mixing member (137, 139) positioned between a proximal inlet of the injection port and the second lumen.
An assembly including a structure of a motor vehicle and a shock absorbing system, said shock absorbing system including a support part of a bumper, at least one shock absorbing beam mounted on the structure of a vehicle, a bumper skin covering the beam and the support part, said support part including a base having means for attachment to an element of the structure of a motor vehicle, the part including at least one reinforcing element connected to the base by one of its ends and dimensioned so as to extend up to placing its other end, designated terminal, above the shock absorbing beam, the reinforcing element being present in the form of a profile and including at the level of its terminal end a face forming a surface substantially parallel to the base and intended to cooperate with the bumper skin for the purpose of the deformation of said reinforcing element, characterized in that said face of the terminal end has a height lower than the height presented by the reinforcing element at the level of its end which is connected to the base.
A windmill device comprising: - a stator provided with stator blades; - a rotor provided with rotor blades and positioned inside a hollow area of the stator, said rotor being able to rotate with respect to the stator about a rotation axis, the stator blades being disposed so as to direct towards the rotor an air flow arriving from the outside of the stator and the blades of the rotor being suitable for causing said rotor to rotate on said rotation axis under the effect of said directed air flow, characterised in that: - at least some of the rotor blades have a concave profile on a rotor blade side; - at least some of the stator blades also have a concave profile on a stator blade side; and in that the blades of the rotor having a concave profile have a chord that is greater than the chord of the stator blades having a concave profile. - a stator provided with stator blades; - a rotor provided with rotor blades and positioned inside a hollow area of the stator, said rotor being able to rotate with respect to the stator about a rotation axis, the stator blades being disposed so as to direct towards the rotor an air flow arriving from the outside of the stator and the blades of the rotor being suitable for causing said rotor to rotate on said rotation axis under the effect of said directed air flow, - at least some of the rotor blades have a concave profile on a rotor blade side; - at least some of the stator blades also have a concave profile on a stator blade side; and in that the blades of the rotor having a concave profile have a chord that is greater than the chord of the stator blades having a concave profile.
A discharge lamp comprising: a light emitting section including, on an inside, a discharge space in which metal halide including halide of indium is encapsulated; and a pair of electrodes projecting to an inside of the discharge space and disposed to be opposed a predetermined distance apart from each other; sealing sections respectively provided at both end portions of the light emitting section in the extending direction of the pair of electrodes, part of electrodes provided on inside of the sealing sections; and coils respectively wound on outer sides of the part of electrodes provided on insides of the sealing sections, wherein a dimension "d" of a longest portion of the discharge space in a direction orthogonal to an extending direction of the pair of electrodes in the discharge space is 1.5 mm or more and 2.3 mm or less, and gaps are provided between the sealing sections and the part of electrodes characterized in that a percentage of the halide of indium included in the metal halide is 0.1 wt% or higher and 0.15 wt% or lower. a light emitting section including, on an inside, a discharge space in which metal halide including halide of indium is encapsulated; and a pair of electrodes projecting to an inside of the discharge space and disposed to be opposed a predetermined distance apart from each other; sealing sections respectively provided at both end portions of the light emitting section in the extending direction of the pair of electrodes, part of electrodes provided on inside of the sealing sections; and coils respectively wound on outer sides of the part of electrodes provided on insides of the sealing sections, wherein a dimension "d" of a longest portion of the discharge space in a direction orthogonal to an extending direction of the pair of electrodes in the discharge space is 1.5 mm or more and 2.3 mm or less, and a dimension "d" of a longest portion of the discharge space in a direction orthogonal to an extending direction of the pair of electrodes in the discharge space is 1.5 mm or more and 2.3 mm or less, and gaps are provided between the sealing sections and the part of electrodes
An inspection device for a stereolithography device, comprising: a transmitter unit arranged on a first side of the 3D printed object to be manufactured and configured to emit light onto at least one area of the 3D printed object on the mounting plate of the stereolithography device, a receiver unit arranged on a second side of the 3D printed object in the beam direction behind the 3D printed object and the mounting plate and configured to detect a part of the light emitted by the transmitter unit, and a processing unit connected to the receiver unit, characterized in that the processing unit is configured to analyze the received light, wherein the light is emitted by the transmitter unit as two-dimensional light grid, and wherein the processing unit is configured to compare the part of the light of the emitted light grid received by the receiver unit with a target light grid, which is based on data representing the 3D printed object. a transmitter unit arranged on a first side of the 3D printed object to be manufactured and configured to emit light onto at least one area of the 3D printed object on the mounting plate of the stereolithography device, a receiver unit arranged on a second side of the 3D printed object in the beam direction behind the 3D printed object and the mounting plate and configured to detect a part of the light emitted by the transmitter unit, and a processing unit connected to the receiver unit, characterized in that the processing unit is configured to analyze the received light, wherein the light is emitted by the transmitter unit as two-dimensional light grid, and wherein the processing unit is configured to compare the part of the light of the emitted light grid received by the receiver unit with a target light grid, which is based on data representing the 3D printed object.
A surgical tool assembly, comprising: a handle; a shaft extending from the handle; a first prong distal to and fixed relative to the shaft; a second prong distal to and fixed relative to the shaft; a first anchor disposed on the first prong; a second anchor disposed on the second prong; and a first suture interconnecting the first anchor and the second anchor; characterized in, that the surgical tool assembly further comprises a second suture interconnecting the first anchor and the second anchor, and wherein the first suture is spliced through the second suture at a first splice section. a handle; a shaft extending from the handle; a first prong distal to and fixed relative to the shaft; a second prong distal to and fixed relative to the shaft; a first anchor disposed on the first prong; a second anchor disposed on the second prong; and a first suture interconnecting the first anchor and the second anchor; characterized in, that the surgical tool assembly further comprises a second suture interconnecting the first anchor and the second anchor, and wherein the first suture is spliced through the second suture at a first splice section.
A turbine engine, comprising: a turbo-compressor including a compressor section and a turbine section, wherein the turbo-compressor includes a first set of compressor blades (80; 82), a second set of compressor blades (80, 81; 81, 82) and a set of turbine blades (84, 85; 85, 86) radially outboard of and respectively connected to the second set of compressor blades (80, 81; 81, 82); and a combustor section fluidly coupled between the compressor section and the turbine section; wherein the compressor section includes a first number of stages and the turbine section includes a second number of stages that is different than the first number; characterised in that the turbine engine further comprises: a fan section upstream of the turbo-compressor; a high pressure compressor rotor; a high pressure turbine rotor; and a high speed shaft, wherein the high pressure compressor rotor is connected to and driven by the high pressure turbine rotor through the high speed shaft. a turbo-compressor including a compressor section and a turbine section, wherein the turbo-compressor includes a first set of compressor blades (80; 82), a second set of compressor blades (80, 81; 81, 82) and a set of turbine blades (84, 85; 85, 86) radially outboard of and respectively connected to the second set of compressor blades (80, 81; 81, 82); and a combustor section fluidly coupled between the compressor section and the turbine section; wherein the compressor section includes a first number of stages and the turbine section includes a second number of stages that is different than the first number; characterised in that the turbine engine further comprises: a fan section upstream of the turbo-compressor; a high pressure compressor rotor; a high pressure turbine rotor; and a high speed shaft, wherein the high pressure compressor rotor is connected to and driven by the high pressure turbine rotor through the high speed shaft. a fan section upstream of the turbo-compressor; a high pressure compressor rotor; a high pressure turbine rotor; and a high speed shaft, wherein the high pressure compressor rotor is connected to and driven by the high pressure turbine rotor through the high speed shaft.
Disinfection appliance comprising: o a disinfection enclosure, bounded by a wall comprising an inlet opening via which an element that is to be disinfected can be introduced, and an outlet opening, opposite the inlet opening along a longitudinal axis (Δ) along which the wall extends longitudinally; o a nebulisation device designed to nebulise a disinfectant product into the form of an aerosol; o an injection device, comprising: • at least one aerosol injector, designed to inject into the disinfection enclosure the aerosol formed by the nebulisation device; characterized in that the injection device further comprises: • at least one air injector, designed to inject air through at least one injection orifice in the wall, in an injection direction, and to generate in the disinfection chamber forced convection that also rotates about the longitudinal axis (Δ), the air injector being arranged in such a way that the injection direction is, in projection in a plane perpendicular to the longitudinal axis (Δ), inclined with respect to an axis referred to as the position axis, said position axis being perpendicular to the longitudinal axis (Δ) and passing through said injection orifice of said air injector. o a disinfection enclosure, bounded by a wall comprising an inlet opening via which an element that is to be disinfected can be introduced, and an outlet opening, opposite the inlet opening along a longitudinal axis (Δ) along which the wall extends longitudinally; o a nebulisation device designed to nebulise a disinfectant product into the form of an aerosol; o an injection device, comprising: • at least one aerosol injector, designed to inject into the disinfection enclosure the aerosol formed by the nebulisation device; characterized in that the injection device further comprises: • at least one air injector, designed to inject air through at least one injection orifice in the wall, in an injection direction, and to generate in the disinfection chamber forced convection that also rotates about the longitudinal axis (Δ), the air injector being arranged in such a way that the injection direction is, in projection in a plane perpendicular to the longitudinal axis (Δ), inclined with respect to an axis referred to as the position axis, said position axis being perpendicular to the longitudinal axis (Δ) and passing through said injection orifice of said air injector. • at least one aerosol injector, designed to inject into the disinfection enclosure the aerosol formed by the nebulisation device; • at least one air injector, designed to inject air through at least one injection orifice in the wall, in an injection direction, and to generate in the disinfection chamber forced convection that also rotates about the longitudinal axis (Δ), the air injector being arranged in such a way that the injection direction is, in projection in a plane perpendicular to the longitudinal axis (Δ), inclined with respect to an axis referred to as the position axis, said position axis being perpendicular to the longitudinal axis (Δ) and passing through said injection orifice of said air injector.
A composition, comprising: a sulfur-containing prepolymer; and a filler comprising a polyphenylene sulfide filler, or (a) a thiol-terminated sulfur-containing prepolymer; (b) a filler comprising a polyphenylene sulfide filler and an inorganic filler; and (c) a polyepoxy curing agent selected from a novolac® epoxy resin, a bisphenol A/epichlorohydrin derived epoxy resin, and a combination thereof, wherein the composition is characterized by a specific gravity from 1.1 to 1.4. a sulfur-containing prepolymer; and a filler comprising a polyphenylene sulfide filler, or (a) a thiol-terminated sulfur-containing prepolymer; (b) a filler comprising a polyphenylene sulfide filler and an inorganic filler; and (c) a polyepoxy curing agent selected from a novolac® epoxy resin, a bisphenol A/epichlorohydrin derived epoxy resin, and a combination thereof, wherein the composition is characterized by a specific gravity from 1.1 to 1.4. (a) a thiol-terminated sulfur-containing prepolymer; (b) a filler comprising a polyphenylene sulfide filler and an inorganic filler; and (c) a polyepoxy curing agent selected from a novolac® epoxy resin, a bisphenol A/epichlorohydrin derived epoxy resin, and a combination thereof, wherein the composition is characterized by a specific gravity from 1.1 to 1.4.
Neurosurgical apparatus comprising; a guidance device (40; 150) comprising a guide tube (42; 152; 302), and a neurosurgical instrument (60;350) for insertion into the guide tube, the outer surface of the neurosurgical instrument having a substantially circular cross-section, wherein, when the neurosurgical instrument (60;350) is being inserted into the guide tube (42; 152; 302), the inner surface of the guide tube (42; 152; 302) at least partially engages the outer surface of the neurosurgical instrument (60;350) thereby guiding the neurosurgical instrument (60;350) along a predefined path through the guide tube (42; 152; 302), characterised in that the guidance device comprises a guide tube (42; 152; 302) having an inner surface having a cross-sectional profile that comprises a plurality of circumferentially spaced apart guidance regions for contacting the neurosurgical instrument (60;350), the plurality of guidance regions being circumferentially separated from each other by one or more spacer regions (50; 156) where there is no contact between the guide tube (42; 152; 302) and the neurosurgical instrument (60;350), the spacer regions (50; 156) providing conduits that provide a fluid return path for carrying any fluid displaced from within the guide tube (42; 152; 302) during insertion of the neurosurgical instrument (60;350) into the guide tube (42; 152; 302). a guidance device (40; 150) comprising a guide tube (42; 152; 302), and a neurosurgical instrument (60;350) for insertion into the guide tube, the outer surface of the neurosurgical instrument having a substantially circular cross-section, wherein, when the neurosurgical instrument (60;350) is being inserted into the guide tube (42; 152; 302), the inner surface of the guide tube (42; 152; 302) at least partially engages the outer surface of the neurosurgical instrument (60;350) thereby guiding the neurosurgical instrument (60;350) along a predefined path through the guide tube (42; 152; 302), characterised in that the guidance device comprises a guide tube (42; 152; 302) having an inner surface having a cross-sectional profile that comprises a plurality of circumferentially spaced apart guidance regions for contacting the neurosurgical instrument (60;350), the plurality of guidance regions being circumferentially separated from each other by one or more spacer regions (50; 156) where there is no contact between the guide tube (42; 152; 302) and the neurosurgical instrument (60;350), the spacer regions (50; 156) providing conduits that provide a fluid return path for carrying any fluid displaced from within the guide tube (42; 152; 302) during insertion of the neurosurgical instrument (60;350) into the guide tube (42; 152; 302).
Combination of a chain and a multiple sprocket wheel having different-size sprockets for receiving a chain formed with rollers, outer plates and inner plates, and for transmitting a circumferential force introduced by the chain to a hub of a bicycle's rear wheel, providing the option to shift the chain from one sprocket to another by means of a shifting device, the sprocket and its teeth having shifting aids which both facilitate the gear change and make a more substantial contribution to keeping the chain engaged with the teeth of the sprocket, wherein the sprocket for guiding the chain in the region of its root circle has a sprocket width that is smaller than the distance between the inner plates determined by a roller of the chain, wherein the resulting little play of the chain on the tooth relates to a guide portion of a tooth gap bottom, characterized in that the teeth arranged on the side facing the larger sprocket have a flat guide inclination that extends from the tooth tip to the root circle where the sprocket reaches its maximum sprocket width, wherein the chain forms a guide portion at the root circle through a projection of the inner plates relative to the roller, and in that axial guidance of the chain on the sprocket is produced by the projection of the inner plates relative to the roller in the guide portion at the root circle of the sprocket, wherein in an engagement state between the chain and the sprocket, in which two rollers connected to one another via an inner plate fit into a tooth gap bottom, the guide portion of the inner plate is provided at the tooth gap bottom that is formed in the region of the root circle with a width around the tooth gap bottom that corresponds to the projection.