mhurhangee/patent-ind-claim-en huggingface dataset:
A packing machine for wirehoods in containers having different and predetermined shapes, comprising: - a bearing structure ; - a loading station for said containers; - a filling station for said containers adjacent to said loading station and provided with retaining means for the containers; - a wirehood supply line , - an automatic handler to transfer stacks of wirehoods from said supply line into said containers in the filling station , characterized in that said loading station , said filling station and said retaining means are reconfigurable based on the size of said containers, wherein said loading station comprises a base plane and a containment structure provided with an upper seat for inserting from the top and stacking said containers inside said containment structure , said upper seat being designed to house containers having maximum plane sizes in two mutually orthogonal positions, said loading station comprising movable panels to obtain a side containment of containers having sizes smaller than said maximum sizes, and wherein the filling station comprises two side panels parallel to a forward axis of said container and at least two stopping elements for said container in the forward direction, said panels are mutually movable in a direction perpendicular to the forward direction, said stopping elements defining different stopping positions for said containers along said forward direction, said stopping elements being selectively usable. - a bearing structure ; - a loading station for said containers; - a filling station for said containers adjacent to said loading station and provided with retaining means for the containers; - a wirehood supply line , - an automatic handler to transfer stacks of wirehoods from said supply line into said containers in the filling station ,
A system comprising: a guiderail for guiding one or more articles conveyed along a conveyor (C) having a conveying path (P) in a conveying direction (D) and an apparatus for supporting the guiderail, the apparatus comprising: a support rail ; and at least one adjuster for adjusting a position of the guiderail relative to the conveyor in a direction (T) transverse to the conveying direction, the at least one adjuster comprising a collapsible support for engaging the support rail and supporting the guiderail, the collapsible support adapted for being extended and retracted into the conveying path in the direction transverse to the conveying direction to selectively position the guiderail relative to the support rail, wherein the collapsible support comprises a pair of arms connected for relative pivoting movement at one end, and each connected to a shuttle for engaging the support rail at another end, characterized in that , each shuttle includes at least one roller for rotatably engaging the support rail. a support rail ; and at least one adjuster for adjusting a position of the guiderail relative to the conveyor in a direction (T) transverse to the conveying direction, the at least one adjuster comprising a collapsible support for engaging the support rail and supporting the guiderail, the collapsible support adapted for being extended and retracted into the conveying path in the direction transverse to the conveying direction to selectively position the guiderail relative to the support rail, wherein the collapsible support comprises a pair of arms connected for relative pivoting movement at one end, and each connected to a shuttle for engaging the support rail at another end, characterized in that , each shuttle includes at least one roller for rotatably engaging the support rail.
A system for locating and identifying nerves innervating the wall of a renal artery comprising: - a catheter having an electrode configured to contact the renal arterial wall and configured to deliver a dose of energy coming from a power source to the renal arterial wall sufficient to stimulate a nerve innervating said renal artery; - one or more sensors configured for detecting one or more physiological signals associated with the innervation of said renal artery as energy sufficient for nerve stimulation is delivered from said electrode, wherein said physiological signals are blood pressure and/or heart rate, characterized in that the system is configured for locating and identifying parasympathetic and sympathetic nerves innervating the wall of the renal artery and further comprises: - a device for analysis of the physiological signals in electrical communication with the one or more sensors , the device for analysis of the physiological signals being configured for digitally determining whether the elicited physiological signal is due to sympathetic or parasympathetic nerves, or the lack thereof, - an indicator in electrical communication with the analysis device and configured to display the result of the analysis from the device for analysis of physiological signals. - a catheter having an electrode configured to contact the renal arterial wall and configured to deliver a dose of energy coming from a power source to the renal arterial wall sufficient to stimulate a nerve innervating said renal artery; - one or more sensors configured for detecting one or more physiological signals associated with the innervation of said renal artery as energy sufficient for nerve stimulation is delivered from said electrode, wherein said physiological signals are blood pressure and/or heart rate, characterized in that the system is configured for locating and identifying parasympathetic and sympathetic nerves innervating the wall of the renal artery and further comprises: - a device for analysis of the physiological signals in electrical communication with the one or more sensors , the device for analysis of the physiological signals being configured for digitally determining whether the elicited physiological signal is due to sympathetic or parasympathetic nerves, or the lack thereof, - an indicator in electrical communication with the analysis device and configured to display the result of the analysis from the device for analysis of physiological signals.
Compound of the formula (I) in which R 1 represents hydrogen or halogen, R 2 represents hydrogen or halogen, R 3 represents chloro or trifluoromethyl, R 4 represents hydrogen or C 1 -C 4 -alkyl R 5 represents C 1 -C 6 -alkyl X 1 represents nitrogen or carbon X 2 represents nitrogen or carbon or one of the salts thereof, solvates thereof or solvates of the salts thereof. R 1 represents hydrogen or halogen, R 2 represents hydrogen or halogen, R 3 represents chloro or trifluoromethyl, R 4 represents hydrogen or C 1 -C 4 -alkyl R 5 represents C 1 -C 6 -alkyl X 1 represents nitrogen or carbon X 2 represents nitrogen or carbon
Trailer support wheel having a measuring device for the tongue load acting on the trailer support wheel , wherein the trailer support wheel has a rotatable wheel body and a wheel carrier , characterized in that the measuring device has a measuring means mounted on the trailer support wheel , wherein the measuring means comprises an elongate wheel axle journal for the wheel body , on which a load measuring element is arranged between the journal ends.
Installation for producing a profiled band based on several mixtures of elastomers of a different composition by means of coextrusion, comprising at least two extruders for supplying a mixture of elastomers to an extrusion head , the extrusion head comprising an assembly of at least two plates which are arranged side by side, each plate comprising at least one cavity which has an inlet hole communicating with a transfer channel which enables the mixture from an extruder to be channelled towards an extrusion die by means of which the profile can be shaped, said installation being characterized in that the plates each have a face of larger dimensions than the edge of said plate, which is arranged substantially transversely relative to the output direction of the mixture flows of the extruders , this direction being parallel to the longitudinal axis of the corresponding extruder and coinciding with the direction of the inlet hole and therefore with the direction of flow of the incoming mixture flow, so that the plate receives the mixture flow by said face of larger dimensions than the edge, and orients said flow in the corresponding transfer channel , which transfer channel, cut into the thickness of the plate, forms an angle of between 70 degrees and 110 degrees with said direction of flow of the incoming flow and runs along the plate towards the extrusion die .
A method of determining the draft of a vessel comprising the steps of: measuring the draft of the vessel using at least one optical imaging device to provide optical draft measurement data of the draft of the vessel based on an automatic detection of the position of draft marks on a hull of the vessel ; using the optical draft measurement data to initialise elevation data provided by at least one GNSS or GPS device so as to provide elevation draft measurement data of the draft of the vessel; and using the elevation draft measurement data to provide at least one measurement of the draft of the vessel subsequent to the step of initialising the elevation draft measurement data. measuring the draft of the vessel using at least one optical imaging device to provide optical draft measurement data of the draft of the vessel based on an automatic detection of the position of draft marks on a hull of the vessel ; using the optical draft measurement data to initialise elevation data provided by at least one GNSS or GPS device so as to provide elevation draft measurement data of the draft of the vessel; and using the elevation draft measurement data to provide at least one measurement of the draft of the vessel subsequent to the step of initialising the elevation draft measurement data.
Switch cabinet light for illuminating a switch cabinet interior , wherein the switch cabinet light comprises a light base body , which holds an illuminating means of the switch cabinet light , and a transparent illuminating means cover mounted at the light base body , the illuminating means cover surrounding the illuminating means , wherein the illuminating means cover is rectangularly formed, in particular U-shaped, in cross section perpendicular to its longitudinal direction, with two transparent parallelly spaced apart sides (5.1) between which the illuminating means is arranged when the illuminating means cover is placed on the light base body , and with a further side (5.2) connecting the parallelly spaced apart sides (5.1), wherein the illuminating means cover can be mounted in two positions on the light base body by means of symmetrically arranged fasteners , the positions being rotated relative to one another by 180° in a rotation plane (x), wherein the illuminating means comprises a flat illuminating means board on which a plurality of individual illuminating means, in particular LEDs or OLEDs, are distributed, characterized in that the illuminating means board extends parallel to the parallel sides (5.1) of the illuminating means cover , wherein a light guide extends along the inside or the outside of one of the two parallelly spaced apart sides (5.1), so that the light guide has a different orientation relative to the illuminating means in the two positions of the illuminating means cover which are rotated by 180° relative to one another.
A self-peening feedstock material for cold spray deposition comprising a higher ductility matrix material and a hardened particle; wherein the higher ductility matrix is a nickel-chrome material and the hardened particle material is a chrome-carbide nickel-chrome dense composite particle; or the higher ductility matrix is a cobalt matrix material and the hardened particle material is a tungsten-carbide cobalt dense composite particle; and characterised in that the higher ductility matrix material is present from 60-95% by weight of the total composition of feedstock material.
Method for securely calling APIs on an API gateway from computer applications that need first party authentication, comprising: using an API gateway comprising at least one computer processor for performing the steps of: receiving , from a protected service , an authentication system token or an authentication system cookie identifier from an authentication system , a first plurality of user identifying attributes, and a request to create an oAuth access token, the request originating with a first party computer application ; creating an attribute string comprising at least one of the first plurality of user identifying attributes and the authentication system token or the authentication system cookie identifier; encrypting the attribute string with a private key, resulting in the oAuth access token; sending the oAuth access token to the first party computer application ; receiving , from the first party computer application , a request to access a backend service , a second plurality of user identifying attributes, and the oAuth access token; decrypting the oAuth access token with the private key; validating the decrypted oAuth access token; inserting the authentication system token or the authentication system cookie identifier into the request to access; and communicating the request to access and the authentication system token or the authentication system cookie identifier to the backend service . receiving , from a protected service , an authentication system token or an authentication system cookie identifier from an authentication system , a first plurality of user identifying attributes, and a request to create an oAuth access token, the request originating with a first party computer application ; creating an attribute string comprising at least one of the first plurality of user identifying attributes and the authentication system token or the authentication system cookie identifier; encrypting the attribute string with a private key, resulting in the oAuth access token; sending the oAuth access token to the first party computer application ; receiving , from the first party computer application , a request to access a backend service , a second plurality of user identifying attributes, and the oAuth access token; decrypting the oAuth access token with the private key; validating the decrypted oAuth access token; inserting the authentication system token or the authentication system cookie identifier into the request to access; and communicating the request to access and the authentication system token or the authentication system cookie identifier to the backend service .
An isolated human monoclonal antibody or functional antibody fragment thereof, wherein the antibody or functional fragment thereof comprises a heavy chain variable domain and a light chain variable domain, wherein the heavy chain variable domain comprises: (i) VHCDR1, VHCDR2, and VHCDR3 respectively corresponding to amino acids 31-35, 50-66, and 99-109 of SEQ ID NO:2, (ii) VHCDR1, VHCDR2, and VHCDR3 respectively corresponding to amino acids 31-35, 50-66, and 99-109 of SEQ ID NO:4, or (iii) VHCDR1, VHCDR2, and VHCDR3 respectively corresponding to amino acids 31-35, 50-66, and 99-109 of SEQ ID NO:6, and wherein the light chain variable domain comprises VLCDR1, VLCDR2, and VLCDR3 respectively corresponding to amino acids 24-32, 48-54, and 87-91 of SEQ ID NO:10, and wherein the antibody or functional fragment thereof is a neutralizing antibody which specifically binds to gp120 of HIV-1. (i) VHCDR1, VHCDR2, and VHCDR3 respectively corresponding to amino acids 31-35, 50-66, and 99-109 of SEQ ID NO:2, (ii) VHCDR1, VHCDR2, and VHCDR3 respectively corresponding to amino acids 31-35, 50-66, and 99-109 of SEQ ID NO:4, or (iii) VHCDR1, VHCDR2, and VHCDR3 respectively corresponding to amino acids 31-35, 50-66, and 99-109 of SEQ ID NO:6, and wherein the light chain variable domain comprises VLCDR1, VLCDR2, and VLCDR3 respectively corresponding to amino acids 24-32, 48-54, and 87-91 of SEQ ID NO:10, and wherein the antibody or functional fragment thereof is a neutralizing antibody which specifically binds to gp120 of HIV-1.
A process for producing a layer of a crystalline A/M/X material, which crystalline A/M/X material comprises a compound of formula [A] a [M] b [X] c , wherein: [M] comprises one or more first cations, which one or more first cations are metal or metalloid cations; [A] comprises one or more second cations; [X] comprises one or more halide anions; a is an integer from 1 to 6; b is an integer from 1 to 6; and c is an integer from 1 to 18, wherein the process comprises disposing on a substrate a precursor composition comprising: (a) a first precursor compound comprising a first cation (M), which first cation is a metal or metalloid cation; and (b) a solvent, and wherein the solvent comprises: (i) a non-polar organic solvent which is a hydrocarbon solvent, a chlorohydrocarbon solvent or an ether solvent; and (ii) a first organic amine comprising at least three carbon atoms, characterised in that the solvent comprises the non-polar organic solvent and the first organic amine in a volume ratio (non-polar organic solvent):(first organic amine) of from 40:1 to 1:2. wherein the process comprises disposing on a substrate a precursor composition comprising: (a) a first precursor compound comprising a first cation (M), which first cation is a metal or metalloid cation; and (b) a solvent, (a) a first precursor compound comprising a first cation (M), which first cation is a metal or metalloid cation; and (b) a solvent, and wherein the solvent comprises: (i) a non-polar organic solvent which is a hydrocarbon solvent, a chlorohydrocarbon solvent or an ether solvent; and (ii) a first organic amine comprising at least three carbon atoms, (i) a non-polar organic solvent which is a hydrocarbon solvent, a chlorohydrocarbon solvent or an ether solvent; and (ii) a first organic amine comprising at least three carbon atoms, characterised in that the solvent comprises the non-polar organic solvent and the first organic amine in a volume ratio (non-polar organic solvent):(first organic amine) of from 40:1 to 1:2.
A method for detecting arrangement disorder of fibers in a conductive composite material (S) using conductive fibers, the method comprising: a step of disposing a coil at a position at which the coil faces a surface (Sa) of the conductive composite material (S) such that a coil face is perpendicular to the surface (Sa); a step of applying current to the coil ; a step of disposing a magnetic field measuring unit at a position at which the magnetic field measuring unit faces the surface (Sa) of the conductive composite material (S) such that a direction of a magnetosensitive axis is horizontal with the surface (Sa) and is parallel to the coil face , wherein the direction of the magnetosensitive axis of the magnetic field sensor is directed in a direction in which the conductive fibers extend, and wherein the magnetic field measuring unit is provided between the surface (Sa) of the conductive composite material (S) and the coil facing the surface (Sa); and a step of detecting a portion at which the arrangement disorder of the fibers in the conductive composite material (S) is present by measuring a magnetic field with the magnetic field measuring unit . a step of disposing a coil at a position at which the coil faces a surface (Sa) of the conductive composite material (S) such that a coil face is perpendicular to the surface (Sa); a step of applying current to the coil ; a step of disposing a magnetic field measuring unit at a position at which the magnetic field measuring unit faces the surface (Sa) of the conductive composite material (S) such that a direction of a magnetosensitive axis is horizontal with the surface (Sa) and is parallel to the coil face , wherein the direction of the magnetosensitive axis of the magnetic field sensor is directed in a direction in which the conductive fibers extend, and wherein the magnetic field measuring unit is provided between the surface (Sa) of the conductive composite material (S) and the coil facing the surface (Sa); and a step of detecting a portion at which the arrangement disorder of the fibers in the conductive composite material (S) is present by measuring a magnetic field with the magnetic field measuring unit .
A bone plate compression system, comprising: - a bone plate having an upper surface and a lower surface , the lower surface configured to be positioned in contact with a first bone fragment and a second bone fragment ; and - a non-locking fastener configured to be inserted through an elongated slot in the bone plate and into the first bone fragment , the elongated slot extending from the upper surface to the lower surface ; - wherein the elongated slot is configured such that when the non-locking fastener is tightened, the non-locking fastener moves from an outer end of the elongated slot to a center of the elongated slot , resulting in the first bone fragment moving toward the second bone fragment and providing dynamic compression of the bone , - wherein the elongated slot includes an upper tapered surface extending from the upper surface of the plate, a lower tapered surface extending from the lower surface of the plate, and an intersection between the upper tapered surface and the lower tapered surface forming a narrowed central portion, and- wherein the narrowed central portion is downwardly curved such that a head portion of the non-locking fastener is urged into the center of the slot as the fastener is secured further into the first bone fragment . - a bone plate having an upper surface and a lower surface , the lower surface configured to be positioned in contact with a first bone fragment and a second bone fragment ; and - a non-locking fastener configured to be inserted through an elongated slot in the bone plate and into the first bone fragment , the elongated slot extending from the upper surface to the lower surface ; - wherein the elongated slot is configured such that when the non-locking fastener is tightened, the non-locking fastener moves from an outer end of the elongated slot to a center of the elongated slot , resulting in the first bone fragment moving toward the second bone fragment and providing dynamic compression of the bone , - wherein the elongated slot includes an upper tapered surface extending from the upper surface of the plate, a lower tapered surface extending from the lower surface of the plate, and an intersection between the upper tapered surface and the lower tapered surface forming a narrowed central portion, and- wherein the narrowed central portion is downwardly curved such that a head portion of the non-locking fastener is urged into the center of the slot as the fastener is secured further into the first bone fragment .