mhurhangee/ep-ind-claims huggingface dataset:
A heat exchanger comprising: a core (30; 30') comprising a plurality of parallel tubes (31; 31'), a header plate (11; 11') having a plurality of openings, into which ends of the tubes (31; 31') are inserted, and a header tank (10; 10') joined to the header plate (11; 11') and cooperating with the header plate (11; 11') to form a fluid inlet chamber (43; 43'), said header tank (10; 10') comprising at least one fluid inlet duct (41; 41') communicating with the fluid inlet chamber (43; 43') and an interface section (19; 19') at which the header tank (10; 10') is joined to the header plate (11; 11'), wherein the interface section (19; 19') has a hollow, substantially rectangular cross-section defined by a plurality of walls (10a, 10e, 10c, 10d; 10a', 10b', 10c', 10d') of the header tank (10; 10'), characterised in that at least one flow deviating projection (51, 52; 51'), protruding into the fluid inlet chamber (43; 43'), is formed on at least one corner between adjacent walls of the header tank (10; 10') at the interface section (19; 19') thereof, said flow deviating projection (51, 52; 51') restricting fluid flow to at least one tube (31; 31') of the core (30; 30') adjacent to said corner. a core (30; 30') comprising a plurality of parallel tubes (31; 31'), a header plate (11; 11') having a plurality of openings, into which ends of the tubes (31; 31') are inserted, and a header tank (10; 10') joined to the header plate (11; 11') and cooperating with the header plate (11; 11') to form a fluid inlet chamber (43; 43'), said header tank (10; 10') comprising at least one fluid inlet duct (41; 41') communicating with the fluid inlet chamber (43; 43') and an interface section (19; 19') at which the header tank (10; 10') is joined to the header plate (11; 11'), wherein the interface section (19; 19') has a hollow, substantially rectangular cross-section defined by a plurality of walls (10a, 10e, 10c, 10d; 10a', 10b', 10c', 10d') of the header tank (10; 10'), characterised in that at least one flow deviating projection (51, 52; 51'), protruding into the fluid inlet chamber (43; 43'), is formed on at least one corner between adjacent walls of the header tank (10; 10') at the interface section (19; 19') thereof, said flow deviating projection (51, 52; 51') restricting fluid flow to at least one tube (31; 31') of the core (30; 30') adjacent to said corner.
A crystal of (S,E)-2-(2,6-dichlorobenzamido)-5-[4-(methyl-pyrimidin-2-yl-amino)phenyl]pent-4-enoic acid, which exhibits peaks at 2θ (°) of 17.1, 17.7, 18.7, 19.9 and 21.0° in powder X-ray diffraction using CuKα radiation.
An infra-red detection device comprising: an infra-red detection section including a pair of opposed pyroelectric elements; a plurality of optical elements arranged to direct infra-red radiation to the infrared detection section; and a masking section arranged in contact with the first optical element to partially mask a first optical element of the plurality of optical elements, such that a first part of the first optical element is masked and a second part of the first optical element is not masked, such that the masking section is arranged to attenuate infra-red radiation directed via the first optical element, wherein the first optical element is a Fresnel facet, and the first optical element and masking section are such that a shape of a detection zone associated with the first optical element is unaffected by the presence or absence of the masking section, the masking of the first optical element by the masking section is the same for both of the pair of pyroelectric elements, and the first part of the first optical element is masked by a portion of the masking section that is opaque to infrared radiation. an infra-red detection section including a pair of opposed pyroelectric elements; a plurality of optical elements arranged to direct infra-red radiation to the infrared detection section; and a masking section arranged in contact with the first optical element to partially mask a first optical element of the plurality of optical elements, such that a first part of the first optical element is masked and a second part of the first optical element is not masked, such that the masking section is arranged to attenuate infra-red radiation directed via the first optical element, wherein the first optical element is a Fresnel facet, and the first optical element and masking section are such that a shape of a detection zone associated with the first optical element is unaffected by the presence or absence of the masking section, the masking of the first optical element by the masking section is the same for both of the pair of pyroelectric elements, and the first part of the first optical element is masked by a portion of the masking section that is opaque to infrared radiation.
A method of forming a multi-layered composite element, comprising: pre-stacking a plurality of plies (201-203, 301-303, P001-P009) of composite material on a flat surface (220, 420) to form a stacked ply assembly (200, 300, 400, 500, 700, 800); rolling the stacked ply assembly (201-203, 301-303, P001-P009) around a mandrel (424, 624, 852) having a longitudinal axis while applying pressure; and curing the rolled stacked ply assembly (201-203, 301-303, P001-P009); wherein joints (208, 308, 408, 508a-i) between the plies extend substantially parallel to the axis and are distributed around the rolled stacked ply assembly (201-203, 301-303, P001-P009) to prevent the joint (208, 308, 408, 508a-i) between any two plies being at the same radial angular location as the joint (208, 308, 408, 508a-i) between any other two plies (201-203, 301-303, P001-P009); and wherein rolling the stacked ply assembly (201-203, 301-303, P001-P009) around a mandrel (424, 624, 852) while applying pressure comprises applying a uniform pressure across the mandrel (424, 624, 852) using a top roller (434, 634) at a first side of the mandrel (424, 624, 852) and a bottom roller (436, 636) at a second, opposite, side of the mandrel (424, 624, 852), wherein the top and bottom rollers (434, 634, 436, 636) are pressed onto the mandrel (424, 624, 852) with springs, and wherein the top and bottom rollers (434, 634, 436, 636) are operable to apply the uniform pressure to the rolled stacked ply assembly (201-203, 301-303, P001-P009) as it rolls around the mandrel (424, 624, 852). pre-stacking a plurality of plies (201-203, 301-303, P001-P009) of composite material on a flat surface (220, 420) to form a stacked ply assembly (200, 300, 400, 500, 700, 800); rolling the stacked ply assembly (201-203, 301-303, P001-P009) around a mandrel (424, 624, 852) having a longitudinal axis while applying pressure; and curing the rolled stacked ply assembly (201-203, 301-303, P001-P009); wherein joints (208, 308, 408, 508a-i) between the plies extend substantially parallel to the axis and are distributed around the rolled stacked ply assembly (201-203, 301-303, P001-P009) to prevent the joint (208, 308, 408, 508a-i) between any two plies being at the same radial angular location as the joint (208, 308, 408, 508a-i) between any other two plies (201-203, 301-303, P001-P009); and wherein rolling the stacked ply assembly (201-203, 301-303, P001-P009) around a mandrel (424, 624, 852) while applying pressure comprises applying a uniform pressure across the mandrel (424, 624, 852) using a top roller (434, 634) at a first side of the mandrel (424, 624, 852) and a bottom roller (436, 636) at a second, opposite, side of the mandrel (424, 624, 852), wherein the top and bottom rollers (434, 634, 436, 636) are pressed onto the mandrel (424, 624, 852) with springs, and wherein the top and bottom rollers (434, 634, 436, 636) are operable to apply the uniform pressure to the rolled stacked ply assembly (201-203, 301-303, P001-P009) as it rolls around the mandrel (424, 624, 852).
A spray rod, configured to be arranged in an intelligent toilet, comprising: a) a first spray rod component having a first surface and a second surface opposite to the first surface, the second surface having at least one groove (2, 3) configured to allow water to flow; b) a second spray rod component having a first surface and a second surface opposite to the first surface, wherein in a case that the first spray rod component and the second spray rod component are assembled together, the second surface of the first spray rod component is coupled to the first surface of the second spray rod component, to allow the at least one groove (2, 3) of the second surface of the first spray rod component and the first surface of the second spray rod component to form at least one flow channel for transmitting water to clean contaminated parts of a user's body; and c) at least one water inlet (21, 31) and at least one water outlet (22, 32) both in communication with the at least one flow channel, to introduce water via the at least one water inlet (21, 31) and spray water out via the at least one water outlet (22, 32) to clean the contaminated parts of the user's body. a) a first spray rod component having a first surface and a second surface opposite to the first surface, the second surface having at least one groove (2, 3) configured to allow water to flow; b) a second spray rod component having a first surface and a second surface opposite to the first surface, wherein in a case that the first spray rod component and the second spray rod component are assembled together, the second surface of the first spray rod component is coupled to the first surface of the second spray rod component, to allow the at least one groove (2, 3) of the second surface of the first spray rod component and the first surface of the second spray rod component to form at least one flow channel for transmitting water to clean contaminated parts of a user's body; and c) at least one water inlet (21, 31) and at least one water outlet (22, 32) both in communication with the at least one flow channel, to introduce water via the at least one water inlet (21, 31) and spray water out via the at least one water outlet (22, 32) to clean the contaminated parts of the user's body.
A surgical instrument that is insertable through a small corneal incision transcamerally under direct visualization in a human eye, said surgical instrument comprising a probe (700, 800, 900) having a handle (705, 805, 905) and a longitudinal shaft (720, 820, 920) which is insertable into the anterior chamber of the eye, an infusion system (780, 1870) and an aspiration system (770, 1870); wherein the surgical instrument is further characterized by; a probe tip (710, 810, 910) which comprises a protective device (721, 821, 921) that extends laterally from a distal end of the longitudinal shaft, the protective device having a distal surface and a proximal surface and being configured to penetrate through the trabecular meshwork and into Schlemm's canal; wherein a cautery element (730, 830, 930) operative to ablate trabecular meshwork tissue for treatment of glaucoma is positioned at a fixed location on the instrument adjacent the upper surface of the protective device so that, after the protective device has penetrated through the trabecular meshwork and become positioned in Schlemm's canal with its distal surface adjacent to the scleral wall of Schlemm's canal and its proximal surface adjacent to the trabecular meshwork, the protective device may advance through a segment of Schlemm's canal with trabecular meshwork tissue passing over the proximal surface of the protective device and becoming ablated by the cautery element while the protective device protects endothelial cells and collector channels lining the scleral wall of Schlemm's canal.
An isolated antibody reactive with glucagon-like peptide receptor 1 (GLP-1R) comprising the amino acid sequences of the light chain complementarity determining regions (CDRs) 1, 2 and 3 as shown in SEQ ID NOs: 3, 4 and 5, respectively and the amino acid sequences of the heavy chain CDRs 1, 2 and 3 as shown in SEQ ID NOs: 6, 7 and 8, respectively, wherein the antibody is an antagonist of GLP-1R.
A stripping method comprising: contacting a mixture including a cyclohexane dicarboxylic acid ester-based compound with an inert gas under a relative pressure of -1.0 to -0.5 barg to remove a volatile component from the mixture, thereby obtaining the cyclohexane dicarboxylic acid ester-based compound, circulating the inert gas recovered after contacting the mixture with the inert gas, and then contacting the recovered inert gas with a new mixture including a cyclohexane dicarboxylic acid ester-based compound, wherein the inert gas is helium, neon, argon, krypton, radon, xenon, nitrogen, carbon dioxide, freon or a mixture thereof. contacting a mixture including a cyclohexane dicarboxylic acid ester-based compound with an inert gas under a relative pressure of -1.0 to -0.5 barg to remove a volatile component from the mixture, thereby obtaining the cyclohexane dicarboxylic acid ester-based compound, circulating the inert gas recovered after contacting the mixture with the inert gas, and then contacting the recovered inert gas with a new mixture including a cyclohexane dicarboxylic acid ester-based compound, wherein the inert gas is helium, neon, argon, krypton, radon, xenon, nitrogen, carbon dioxide, freon or a mixture thereof.
Fluid flow detection device for detecting a fluid flow in a fluid pipe downstream of a spring operated check valve being positioned within the fluid pipe when the check valve is closed, wherein the check valve is closed when the pressure differential across the spring operated check valve is smaller than an opening threshold, and wherein the check valve is opened when the pressure differential across the spring operated check valve is greater than the opening threshold having a first piston being positioned within a first bypass across the check valve; wherein the first piston is designed to become transferred from a first position into a second position when the pressure differential across the check valve is greater than a first threshold that is smaller than the opening threshold, characterized by the first piston having a shape that closes the first bypass in the first position of the first piston and the second position of the first piston; a second piston being positioned within a second bypass across the check valve, wherein the second piston is designed to become transferred from a first position into a second position when the pressure differential across the check valve is greater than a second threshold that is greater than the first threshold but smaller than the opening threshold, and wherein the second piston has a shape that closes the second bypass in the first position of the second piston but opens the same in the second position of the second piston; a first sensor for detecting the position of the first piston; a second sensor for detecting the position of the second piston; a housing that accommodates the pistons (14, 16) and the sensors (17, 18), wherein the bypasses (13, 15) are partially provided by the fluid pipe and by the housing. having a first piston being positioned within a first bypass across the check valve; wherein the first piston is designed to become transferred from a first position into a second position when the pressure differential across the check valve is greater than a first threshold that is smaller than the opening threshold, characterized by the first piston having a shape that closes the first bypass in the first position of the first piston and the second position of the first piston; a second piston being positioned within a second bypass across the check valve, wherein the second piston is designed to become transferred from a first position into a second position when the pressure differential across the check valve is greater than a second threshold that is greater than the first threshold but smaller than the opening threshold, and wherein the second piston has a shape that closes the second bypass in the first position of the second piston but opens the same in the second position of the second piston; a first sensor for detecting the position of the first piston; a second sensor for detecting the position of the second piston; a housing that accommodates the pistons (14, 16) and the sensors (17, 18), wherein the bypasses (13, 15) are partially provided by the fluid pipe and by the housing.
An imaging lens system comprising, from an object side, a first lens group having a positive optical power, a second lens group having a positive optical power, and a third lens group having a positive optical power, wherein a most object-side lens element in the first lens group has a negative optical power, and a lens element immediately subsequent thereto has a negative optical power, during focusing from an object at infinity to an object at a close distance, while the first and third lens groups remain stationary relative to an image surface, the second lens group moves toward the object side, the second lens group has at least one negative lens element, and conditional formulae to below are fulfilled: 0.2 < P 1 / P < 0.6 0.3 < P 1 / P 2 < 0.9 0.45 < P 1 + P 3 / P < 1.0 where P1 represents an optical power of the first lens group; P2 represents an optical power of the second lens group; P3 represents an optical power of the third lens group; and P represents an optical power of the entire system in an infinity shooting condition. P1 represents an optical power of the first lens group; P2 represents an optical power of the second lens group; P3 represents an optical power of the third lens group; and P represents an optical power of the entire system in an infinity shooting condition.
A dental prosthetic device extending principally along an axis of extension and comprising at least one implant, one cap and an abutment which is interposed between the implant and the cap, where the abutment comprises an abutment body provided with means of attachment to the implant, where the abutment comprises an abutment head which is at least partially delimited by an outer abutment surface and which is equipped with means for retaining the cap, the retaining means comprise means of interfitting the abutment head inside a cavity which is formed inside the cap and which is at least partially delimited by an inner cap surface, the interfitting means comprise a frustoconical layout of the abutment head and a complementary frustoconical layout of the cavity, the retaining means comprise means for screwing the cap onto the abutment head, the inner cap surface is provided with a tab which is in contact against the outer abutment surface, and a spacing which extends radially between the outer abutment surface and the inner cap surface, characterized in that the tab extends axially from a lower cap end to a contact point of the inner cap surface and in that the spacing is arranged axially between the contact point and a cone lip of the inner cap surface.
Method for producing a plastic cover with a transparent section in a multi-component injection-moulding process, comprising the steps of: - applying an imprint to at least one subregion of a transparent film; and - moulding a first, transparent component onto the side of the film to which the imprint has been applied, in an injection-moulding process, wherein the composite comprising the film and the transparent component forms a first element of the plastic cover, characterized by moulding a second component onto the first element of the plastic cover, wherein the imprint on the film conceals evident structural means and/or unsightly traces of production and wherein the second injection-moulding component of the plastic cover finishes flush with the first element of the plastic cover, in a plane with a surface of the film of the first element that is facing the viewer. - applying an imprint to at least one subregion of a transparent film; and - moulding a first, transparent component onto the side of the film to which the imprint has been applied, in an injection-moulding process, wherein the composite comprising the film and the transparent component forms a first element of the plastic cover,
A linkage for trailing shoe or trailing hose distributors for the spreading of liquid manure, the linkage being mountable to a liquid manure tank vehicle and having boom portions that are pivotable around a hinged joint, between a transport position folded in towards the liquid manure tank vehicle and a working position folded out sidewards, and that each have a support beam (6, 7, 8, 9) and disposed thereon either a plurality of trailing shoe skids, respectively with an end portion of an associated liquid manure spreading hose, or a plurality of trailing hoses, characterised in that the support beam is configured with a plastic tube (6, 7) as the supporting structure, the tube being reinforced with upper and lower, longitudinally extending struts (8, 9) and connected to the hinged joint.
Method for repairing a receiving hook for guide vanes, wherein the receiving hook is arranged in a housing of a turbomachine, the method comprising the steps of: - removing first material in a region of the receiving hook, wherein the region extends over the entire circumference of the housing; and subsequently - depositing second material in or onto the region, wherein the region in or onto which said material is deposited extends over the entire circumference of the housing, wherein the deposition is carried out by applying local heat by means of a laser powder deposition welding process and/or a plasma welding process, and wherein the deposition is carried out in a plurality of layers which are deposited in the circumferential direction. - removing first material in a region of the receiving hook, wherein the region extends over the entire circumference of the housing; and subsequently - depositing second material in or onto the region, wherein the region in or onto which said material is deposited extends over the entire circumference of the housing, wherein the deposition is carried out by applying local heat by means of a laser powder deposition welding process and/or a plasma welding process, and wherein the deposition is carried out in a plurality of layers which are deposited in the circumferential direction.
A method for biometric enrolment of a biometrically authorisable device, wherein the biometrically authorisable device comprises a biometric sensor for identification of an authorised user and a processor capable of permitting access to one or more secure feature(s) of the biometrically authorisable device based on authentication of the user's identity via the biometric sensor, and wherein the method comprises: mounting the biometrically authorisable device to a holder in order to form an enrolment system, wherein the enrolment system including the biometrically authorisable device and the holder is arranged to be delivered to the end user by a mail delivery service; providing the holder with a power source capable of supplying power to the biometrically authorisable device, wherein the holder is arranged such that during the delivery of the enrolment system the supply of power from the power source to the biometrically authorisable device is deactivated, and the holder includes a switching arrangement configured to activate the supply of power from the power source to the biometrically authorisable device in response to manipulation of the holder by a user after delivery of the enrolment system; delivering the enrolment system to an end user; activating the supply of power from the power source in the holder to the biometrically authorisable device in response to manipulation of the holder by the user; enabling an enrolment mode of the biometrically authorisable device in which the user's biometric data can be enrolled to the biometrically authorisable device via an enrolment process using the biometric sensor of the biometrically authorisable device; and using the power from the power source to power the biometrically authorisable device during the enrolment process.