mhurhangee/patent-ind-claim-en huggingface dataset:
A band-stop filter comprising: a housing comprising a top wall, a bottom wall and at least one side wall , the housing defining an internal cavity ; a signal input port that is disposed on one of the at least one side wall ; a signal output port that is disposed on one of the at least one side wall ; a resonating element that is disposed in the internal cavity and includes a top, a bottom, and a side; and a transmission line that is disposed in the internal cavity and coupled between the signal input port and the signal output port , the transmission line comprising a coupling section that is coupled to the resonating element , a first connecting section (92-1), and a second connecting section (92-4), the coupling section is configured to surround more than half of the side of the resonating element and not directly contact the housing and the resonating element , characterized in that the coupling section is connected to the first connecting section (92-1) and coupled to the signal input port via the first connecting section (92-1), wherein the coupling section is connected to the second connecting section (92-4) and coupled to the signal output port via the second connecting section (92-4), and wherein the transmission line is coupled between the signal input port and the signal output port sequentially through the first connecting section (92-1), the coupling section and the second connecting section (92-4). a housing comprising a top wall, a bottom wall and at least one side wall , the housing defining an internal cavity ; a signal input port that is disposed on one of the at least one side wall ; a signal output port that is disposed on one of the at least one side wall ; a resonating element that is disposed in the internal cavity and includes a top, a bottom, and a side; and a transmission line that is disposed in the internal cavity and coupled between the signal input port and the signal output port , the transmission line comprising a coupling section that is coupled to the resonating element , a first connecting section (92-1), and a second connecting section (92-4), the coupling section is configured to surround more than half of the side of the resonating element and not directly contact the housing and the resonating element , characterized in that the coupling section is connected to the first connecting section (92-1) and coupled to the signal input port via the first connecting section (92-1), wherein the coupling section is connected to the second connecting section (92-4) and coupled to the signal output port via the second connecting section (92-4), and wherein the transmission line is coupled between the signal input port and the signal output port sequentially through the first connecting section (92-1), the coupling section and the second connecting section (92-4).
An apparatus for recovering fluid from a fluid retaining structure , said apparatus comprising: a vessel comprising a port coupled to a source of negative pressure; a cylindrical strainer received by said vessel, said strainer comprising a body having a small diameter lower section joined to a large diameter upper section by a first flange , said small diameter lower section having a base with a plurality of apertures , wherein said fluid retaining structure is received by said large diameter upper section; and a piston comprising a shaft separating an upper piston head for engaging said large diameter upper section and a lower piston head for engaging said small diameter lower section; and whereby said piston is caused to travel within said strainer by said negative pressure, wherein said piston acts on said fluid retaining structure on said base to cause egress of said fluid from said fluid retaining structure into a reservoir comprised by said vessel via said plurality of apertures. a vessel comprising a port coupled to a source of negative pressure; a cylindrical strainer received by said vessel, said strainer comprising a body having a small diameter lower section joined to a large diameter upper section by a first flange , said small diameter lower section having a base with a plurality of apertures , wherein said fluid retaining structure is received by said large diameter upper section; and a piston comprising a shaft separating an upper piston head for engaging said large diameter upper section and a lower piston head for engaging said small diameter lower section; and whereby said piston is caused to travel within said strainer by said negative pressure, wherein said piston acts on said fluid retaining structure on said base to cause egress of said fluid from said fluid retaining structure into a reservoir comprised by said vessel via said plurality of apertures.
A compound represented by the formula: or a pharmaceutically acceptable salt thereof, wherein X is F; R 2 is H; R 3 is selected from the group consisting of R 11 is H, C 1 -C 30 alkyl, or C 1 -C 30 alkenyl; n is 1 or 2; and A is wherein the absolute stereochemistry at a stereogenic center may be R or S or a mixture thereof; and the stereochemistry of a double bond may be E or Z or a mixture thereof. wherein X is F; R 2 is H; R 3 is selected from the group consisting of R 11 is H, C 1 -C 30 alkyl, or C 1 -C 30 alkenyl; n is 1 or 2; and A is
A landing grid element for use in a helicopter landing grid, the landing grid element comprising a body having at least one anchor aperture for receiving a hook or like anchor device of a helicopter, the body also having a periphery defined by a polygon in plan view, the periphery being configured for tessellation with a periphery of a body of at least one other landing grid element of the same shape and configuration such that no substantial gaps or overlapping regions are formed between the peripheries of the respective bodies, wherein the body is of stainless and/or maraging steel, and wherein each anchor aperture comprises a diameter (D2) in the range of 2cm to 10cm.
Locking system of a door station of a house communication system, • wherein the station comprises a front plate, which is subdivided into a main front plate and an end front plate and a gap is embodied between the main front plate and the end front plate , • wherein the main front plate is fixedly connected to a device insert and a closure module , • wherein the end front plate is fixedly connected to an end strip that comprises a locking part , characterized in that • for the purpose of releasably fastening the end strip to the station a hooking arrangement is provided, in which latching hooks of the locking part of the end strip engage over latching edges of insertion inclines of the closure module , • the end strip comprises a locking strip, wherein for the purpose of blocking the lateral displacement of the end strip relative to the closure module a cam that is connected to the closure module engages in a groove of a locking strip on the end face of the end front plate , which end face faces the main front plate , and • for the purpose of removing the end strip from the station a removal tool engages in the gap , the removal tool comprises a spigot that engages through the groove in the locking strip of the end front plate of the end strip and presses against the cam in order to urge the cam out of the groove and in order to release the blocking of the transverse displacement between the closure module and the end strip . • wherein the station comprises a front plate, which is subdivided into a main front plate and an end front plate and a gap is embodied between the main front plate and the end front plate , • wherein the main front plate is fixedly connected to a device insert and a closure module , • wherein the end front plate is fixedly connected to an end strip that comprises a locking part , • for the purpose of releasably fastening the end strip to the station a hooking arrangement is provided, in which latching hooks of the locking part of the end strip engage over latching edges of insertion inclines of the closure module , • the end strip comprises a locking strip, wherein for the purpose of blocking the lateral displacement of the end strip relative to the closure module a cam that is connected to the closure module engages in a groove of a locking strip on the end face of the end front plate , which end face faces the main front plate , and • for the purpose of removing the end strip from the station a removal tool engages in the gap , the removal tool comprises a spigot that engages through the groove in the locking strip of the end front plate of the end strip and presses against the cam in order to urge the cam out of the groove and in order to release the blocking of the transverse displacement between the closure module and the end strip .
A height difference detecting method comprising: irradiating a light irradiation surface of a substrate , said light irradiation surface having a concave and convex shape, with laser light collected by a lens ; separating, using a geometrical beam separator (14; 14a), reflected and/or scattered light from the light irradiation surface from a regularly reflected light reflected from the substrate such that the regularly reflected light from the substrate is not guided towards an image acquiring unit , wherein the geometrical beam separator is a perforated mirror or a small mirror ; acquiring, by the image acquiring unit , a light intensity of the light reflected and/or scattered from the light irradiation surface and received by the lens as image data; and detecting a height difference of the concave and convex shape based on a change in intensity of the acquired image data; characterized in that the light irradiation surface of the substrate is arranged at a position closer to the lens than a focal position of the lens , wherein the light irradiation surface of the substrate is arranged at a position corresponding to "α" that is set such that "α/f" is in a range of 0.017 to 0.17, where "f" is a focal length of the lens and "α" is a distance by which the surface of the substrate is brought closer to the lens from the focal position. irradiating a light irradiation surface of a substrate , said light irradiation surface having a concave and convex shape, with laser light collected by a lens ; separating, using a geometrical beam separator (14; 14a), reflected and/or scattered light from the light irradiation surface from a regularly reflected light reflected from the substrate such that the regularly reflected light from the substrate is not guided towards an image acquiring unit , wherein the geometrical beam separator is a perforated mirror or a small mirror ; acquiring, by the image acquiring unit , a light intensity of the light reflected and/or scattered from the light irradiation surface and received by the lens as image data; and detecting a height difference of the concave and convex shape based on a change in intensity of the acquired image data; characterized in that the light irradiation surface of the substrate is arranged at a position closer to the lens than a focal position of the lens , wherein the light irradiation surface of the substrate is arranged at a position corresponding to "α" that is set such that "α/f" is in a range of 0.017 to 0.17, where "f" is a focal length of the lens and "α" is a distance by which the surface of the substrate is brought closer to the lens from the focal position.
A mixed-plastic polypropylene blend having (i) a density determined according to DIN EN ISO 1183 of 900 to less than 924 kg/m 3 ; (ii) a soluble fraction (SF) content determined according to CRYSTEX QC analysis in the range from 3.0 to 12.0 wt.-%, wherein CRYSTEX QC analysis is carried out on basis of ISO 6427 Annex B: 1992 (E) as described in the experimental part of the specification, whereby (iii) said soluble fraction (SF) has an ethylene-propylene rubber (EPR) content as expressed by equation of less than 7.0 wt.-%, where the EPR corresponds to the fraction with a molar mass higher than logM of 3.5 to 8 of the soluble fraction (SF) in TCB at 35°C obtained by Cross Fractionation Chromatography (CFC) analysis EPR fraction in wt . − % = ∑ j = 3.5 8 H j ∑ j = 2 8 H j ∗ SF wherein Hj denotes the signal height at logM value j, and wherein Cross Fractionation Chromatography (CFC) analysis is carried out as described in the experimental part of the specification; and (iv) said soluble fraction (SF) has an intrinsic viscosity (iV(SF)) in the range from 1.10 to below 1.50 dl/g, preferably 1.25 to 1.45 dl/g, wherein the intrinsic viscosity is determined by CRYSTEX QC analysis on basis of ISO 6427 Annex B: 1992 (E) as described in the experimental part of the specification; and whereby (v) the mixed-plastic polypropylene blend has inorganic residues as measured by calcination analysis (TGA) according to DIN ISO 1172:1996 of 0.05 to 3.0 wt.-%, preferably 0.05 to 2.5 wt.-%, optionally 0.5 to 2.0 wt.-% with respect to the mixed-plastic polypropylene blend; and wherein the mixed-plastic polypropylene blend is a recycled material. (i) a density determined according to DIN EN ISO 1183 of 900 to less than 924 kg/m 3 ; (ii) a soluble fraction (SF) content determined according to CRYSTEX QC analysis in the range from 3.0 to 12.0 wt.-%, wherein CRYSTEX QC analysis is carried out on basis of ISO 6427 Annex B: 1992 (E) as described in the experimental part of the specification, whereby (iii) said soluble fraction (SF) has an ethylene-propylene rubber (EPR) content as expressed by equation of less than 7.0 wt.-%, where the EPR corresponds to the fraction with a molar mass higher than logM of 3.5 to 8 of the soluble fraction (SF) in TCB at 35°C obtained by Cross Fractionation Chromatography (CFC) analysis EPR fraction in wt . − % = ∑ j = 3.5 8 H j ∑ j = 2 8 H j ∗ SF wherein Hj denotes the signal height at logM value j, and wherein Cross Fractionation Chromatography (CFC) analysis is carried out as described in the experimental part of the specification; and (iv) said soluble fraction (SF) has an intrinsic viscosity (iV(SF)) in the range from 1.10 to below 1.50 dl/g, preferably 1.25 to 1.45 dl/g, wherein the intrinsic viscosity is determined by CRYSTEX QC analysis on basis of ISO 6427 Annex B: 1992 (E) as described in the experimental part of the specification; and whereby (v) the mixed-plastic polypropylene blend has inorganic residues as measured by calcination analysis (TGA) according to DIN ISO 1172:1996 of 0.05 to 3.0 wt.-%, preferably 0.05 to 2.5 wt.-%, optionally 0.5 to 2.0 wt.-% with respect to the mixed-plastic polypropylene blend; and
An optical apparatus that is one of a camera that includes a first correction unit movable for an image stabilization and a lens apparatus attachable to and detachable from the camera and including a second correction unit movable for the image stabilization, a camera system including the lens apparatus and the camera, the optical apparatus comprising a setting unit , wherein the camera system moves one correction unit of the first correction unit and the second correction unit and does not move the other correction unit in the image stabilization before imaging for recording starts, and moves the first correction unit and the second correction unit in the image stabilization during the imaging for recording, and the setting unit sets information on a correction ratio between the first correction unit and the second correction unit for each moving direction of the one correction unit from a position of the one correction unit when the imaging for recording starts.
A conductive ink composition comprising: A silver component, where at least about 50% of the silver component is made up of silver having a particle size of greater than about 100 nm and less than about 1 um; A carrier; and An organohalogen compound selected from the group consisting of 2-iodopropane, 1-iodopropane, 2-iodo-2-methylpropane, 2-iodobutane, 2-fluorobenzotrifluoride, 3-fluorobenzotrifluoride, 4-fluorobenzotrifluoride, fluorobenzene, 2-fluoro ethanol, 1-fluorododecane, 1-fluorohexane, 1-fluoroheptane and mixtures thereof. A silver component, where at least about 50% of the silver component is made up of silver having a particle size of greater than about 100 nm and less than about 1 um; A carrier; and An organohalogen compound selected from the group consisting of 2-iodopropane, 1-iodopropane, 2-iodo-2-methylpropane, 2-iodobutane, 2-fluorobenzotrifluoride, 3-fluorobenzotrifluoride, 4-fluorobenzotrifluoride, fluorobenzene, 2-fluoro ethanol, 1-fluorododecane, 1-fluorohexane, 1-fluoroheptane and mixtures thereof.
A distance weapon for non-lethal exposure of the human or animal body to irritant, comprising a housing containing at least an irritant , a propellant and moreover at least a medical adhesive , namely a cyanoacrylate preparation, polyvinylpyrrolidone or cellulose nitrate, characterised in that the irritant is 2-chlorobenzylidene malonic acid dinitrile CS, ω-chloroacetophenone CN or capsaicin CPS, wherein the distance weapon being configured as an irritant cartridge and the housing as a cartridge case closed by a plug which cartridge case contains the adhesive in liquid form, and wherein a fully closed adhesive chamber being accommodated in the housing containing the adhesive which adhesive chamber is configured in the plug closing the cartridge case , and wherein the plug being a cylindrical inner case pressed into the cartridge case with an internal and external transverse wall which form the adhesive chamber, and wherein the cylindrical inner case of the plug extending beyond the internal transverse wall towards the inside to the bottom of the cartridge case , with the support formed as a result on the side of the internal transverse wall facing the bottom being filled with the irritant .
A material for biocontainers to store or process fluids therein, comprising a multilayered film, the film having an interior and exterior side, and a substrate attached to the exterior side of the film, wherein the substrate is formed of a woven or a non-woven fibrous material so as to provide abrasion resistance to the material, further wherein the film has a first interior side layer formed of one or more layers forming an inner contact zone, one or more layers of a gas impermeable zone and one or more layers of polymers on the exterior side of the of gas impermeable zone forming an outer strength zone, and the material further comprising an outer protective layer incorporated into the outer surface of the substrate to encapsulate the substrate. a multilayered film, the film having an interior and exterior side, and a substrate attached to the exterior side of the film, wherein the substrate is formed of a woven or a non-woven fibrous material so as to provide abrasion resistance to the material, further wherein the film has a first interior side layer formed of one or more layers forming an inner contact zone, one or more layers of a gas impermeable zone and one or more layers of polymers on the exterior side of the of gas impermeable zone forming an outer strength zone, and the material further comprising an outer protective layer incorporated into the outer surface of the substrate to encapsulate the substrate.
A composition of matter comprising a combination of: metformin; simvastatin; and digoxin. metformin; simvastatin; and digoxin.
Method for manufacturing an aircraft floor rail , the said floor rail comprising at least one web , a first flange having a fixing system and a second flange connected to the first flange by the web or webs , the floor rail comprising a neutral-axis plane, characterized in that the method comprises a step of manufacturing, separately, a first part of the floor rail , comprising at least the first flange , from a corrosion-resistant first material, and a second part of the floor rail , comprising at least the second flange , from a second material having a density that is different from, in particular lower than, that of the first material, and a step of assembling the first and second parts of the floor rail by crimping so as to obtain a crimped joint positioned at or very close to the plane of the neutral axis of the floor rail .
A carpet tile, comprising: a pile fabric layer; a primary backing coupled with the pile fabric layer; a secondary backing coupled with the primary backing; and a dual-layer wet-laid nonwoven mat coupled with the secondary backing, the dual-layer wet-laid nonwoven mat comprising: a first layer comprising a plurality of inorganic fibers, preferably glass fibers, and a binder, said first layer facing towards the secondary backing; and a second layer comprising a plurality of synthetic fibers and a binder. a pile fabric layer; a primary backing coupled with the pile fabric layer; a secondary backing coupled with the primary backing; and a dual-layer wet-laid nonwoven mat coupled with the secondary backing, the dual-layer wet-laid nonwoven mat comprising: a first layer comprising a plurality of inorganic fibers, preferably glass fibers, and a binder, said first layer facing towards the secondary backing; and a second layer comprising a plurality of synthetic fibers and a binder. a first layer comprising a plurality of inorganic fibers, preferably glass fibers, and a binder, said first layer facing towards the secondary backing; and a second layer comprising a plurality of synthetic fibers and a binder.