mhurhangee/patent-ind-claim-en huggingface dataset:
An electronic device comprising: a controller; and a connector coupled to the controller, wherein the connector includes a first set of pins and a second set of pins, and wherein the controller concurrently is to: communicate with a first module of a modular computing system via the first set of pins; and communicate with a second module of the modular computing system, coupled to the first module, via the second set of pins, characterized in that the first set of pins and the second set of pins have mirrored pin assignments. a controller; and a connector coupled to the controller, wherein the connector includes a first set of pins and a second set of pins, and wherein the controller concurrently is to: communicate with a first module of a modular computing system via the first set of pins; and communicate with a second module of the modular computing system, coupled to the first module, via the second set of pins, characterized in that the first set of pins and the second set of pins have mirrored pin assignments. communicate with a first module of a modular computing system via the first set of pins; and communicate with a second module of the modular computing system, coupled to the first module, via the second set of pins, characterized in that the first set of pins and the second set of pins have mirrored pin assignments.
An assembly comprising a plurality of screws , a propeller provided with a cylindrical propeller casing , at least one blade rotatably mounted about a pivot axis with respect to said cylindrical propeller casing , a hub adapted to be coupled to an engine and mounted coaxially inside said propeller casing, a kinematic mechanism coupled to said hub , and/or to said propeller casing, and to said at least one blade for adjusting the fluid dynamic pitch of the propeller by means of rotation of said at least one blade about its pivot axis with respect to said propeller casing, said hub being rotatable with respect to said cylindrical propeller casing, or vice versa, for at least one non-zero angular interval (α) of operation of said kinematic mechanism for adjusting the fluid dynamic pitch, said hub being integral with at least one contact surface that is movable between at least one position of disengagement from and at least one position of engagement, direct or indirect, with at least one relative abutment integral with said cylindrical propeller casing , said at least one relative abutment defining at least one limit stop of said at least one angular interval (α), characterized in that said plurality of screws comprises at least two different screws, having different lengths, and in that said propeller comprises at least one seat for complete installation of at least one screw selected from said plurality of screws having different lengths and adapted to be installed alternatively in said seat , wherein at least one region of said at least one screw selected from said plurality of screws when installed , by complete screwing in said seat , acts as one limit stop abutment for the contact surface .
An appliance for the size-reduction and drying of waste material, slag, rocks and similar materials (M), comprising an essentially funnel-shaped vessel with a cylindrical attachment , on which at least two air inlets for introducing compressed and possibly heated air (L) are arranged in a manner distributed over the periphery, with an exit opening for size-reduced material (G) on the base of the funnel-like vessel and with an air outflow opening which is arranged on the cylindrical attachment at the end of the vessel which is larger in diameter and which lies opposite the exit opening , as well as with a feed device for the material (M) which is to be reduced in size, said feed device running out into the cylindrical attachment , characterised in that a supersonic nozzle with a cross-sectional course which corresponds to a Laval nozzle and with a Venturi function is each arranged on the at least two air inlets which are distributed over the periphery of the cylindrical attachment , in a manner such that the fed air (L) can be introduced in the peripheral direction of the cylindrical attachment and of the funnel-shaped vessel .
Process for the synthesis of the opioid receptor antagonist Buprenorphine (5 R ,6 R ,7 R ,9 R ,13 S ,14 S )-17-Cyclopropylmethyl-7-[( S )-3,3-dimethyl-2-hydroxybutan-2-yl]-6-methoxy-4,5-epoxy-6,14-ethanomorphinan-3-ol, or a pharmaceutical acceptable salt thereof, comprising the steps of a) reacting a thebaine-derivative according to the formula I and a dienophile to yield the reaction product II wherein, R 1 , R 2 and R 3 are independently selected from the group consisting of H or C1-C3 alkyl and wherein the bridge between the 14 and the 6 position comprises one double or only single bonds; b) contacting the reaction product II and a Grignard-reagent R 4 -Mg-X to yield the corresponding alkylated reaction product according to the following formula III wherein R 4 is selected from the group consisting of C1-C6-Alkyl and X is selected from the group consisting of I, Cl, F and Br; c) reacting the compound according to formula III and a halo-cyanide to yield the corresponding cyanamide according to formula IV d) cleaving the cyanamide-moiety and the phenolic-oxygen-moiety to yield the deprotected intermediate according to formula VI e) derivatization of compound VI in the presence of a cyclopropyl-halogen and optionally hydrogenation of the bridge between C6 and C14 positions to comprise single bonds only to yield Buprenorphine, a Buprenorphine derivative according to compound VII or a Buprenorphine salt characterized in that at least one of the cleavages in step d) is performed in the presence of an alkali or alkaline earth sulfide. a) reacting a thebaine-derivative according to the formula I and a dienophile to yield the reaction product II wherein, R 1 , R 2 and R 3 are independently selected from the group consisting of H or C1-C3 alkyl and wherein the bridge between the 14 and the 6 position comprises one double or only single bonds; b) contacting the reaction product II and a Grignard-reagent R 4 -Mg-X to yield the corresponding alkylated reaction product according to the following formula III wherein R 4 is selected from the group consisting of C1-C6-Alkyl and X is selected from the group consisting of I, Cl, F and Br; c) reacting the compound according to formula III and a halo-cyanide to yield the corresponding cyanamide according to formula IV d) cleaving the cyanamide-moiety and the phenolic-oxygen-moiety to yield the deprotected intermediate according to formula VI e) derivatization of compound VI in the presence of a cyclopropyl-halogen and optionally hydrogenation of the bridge between C6 and C14 positions to comprise single bonds only to yield Buprenorphine, a Buprenorphine derivative according to compound VII or a Buprenorphine salt
A bicycle saddle that can be fastened on a bicycle, wherein the bicycle saddle has a saddle nose and a rear region , wherein the bicycle saddle has a central region that is arranged between the rear region and the saddle nose , wherein the bicycle saddle has a bicycle saddle shell and a damping layer that is fastened on the bicycle saddle shell , and wherein the damping layer comprises an elastic material that is designed for absorbing forces acting upon the bicycle saddle due to a deformation of the elastic material, characterized in that the bicycle saddle shell is delimited by a peripheral shell edge , wherein two opposing recesses are formed on an underside (2-2) of the bicycle saddle shell and respectively extend sectionally along the shell edge in the central region of the bicycle saddle ; in that the damping layer is delimited by a peripheral layer edge , wherein the damping layer has two opposing projections that respectively extend sectionally along the layer edge in the central region of the bicycle saddle , and in that the two projections are designed for respectively engaging behind the opposing recesses in order to achieve form-fitted fastening of the damping layer on the bicycle saddle shell . the bicycle saddle shell is delimited by a peripheral shell edge , wherein two opposing recesses are formed on an underside (2-2) of the bicycle saddle shell and respectively extend sectionally along the shell edge in the central region of the bicycle saddle ; in that the damping layer is delimited by a peripheral layer edge , wherein the damping layer has two opposing projections that respectively extend sectionally along the layer edge in the central region of the bicycle saddle , and in that the two projections are designed for respectively engaging behind the opposing recesses in order to achieve form-fitted fastening of the damping layer on the bicycle saddle shell .
A microstructure comprising a botulinum toxin composition containing, as active ingredient, a botulinum toxin, a thickener and a stabilizer, wherein the microstructure is any one or more selected from the group consisting of a microneedle, a microblade, a microknife, a microfiber, a microspike, a microprobe, a microbarb, a microarray, and a microelectrode, which microstructure is prepared by a method comprising the steps of: (a) precoating the microstructure with polyvinyl alcohol; (b) mixing a botulinum toxin, a thickener and a stabilizer to obtain a mixture; and (c) dipping the precoated microstructure of step (a) into the mixture of step (b), followed by drying; wherein the thickener is any one or more selected from the group consisting of carboxymethyl cellulose sodium salt, sodium alginate, hyaluronic acid, methyl cellulose, hydroxyethyl cellulose, and polyvinyl pyrrolidone; and wherein the stabilizer is any one or more selected from the group consisting of trehalose, methionine, sodium phosphate, and a mixture of human serum albumin and sodium chloride. (a) precoating the microstructure with polyvinyl alcohol; (b) mixing a botulinum toxin, a thickener and a stabilizer to obtain a mixture; and (c) dipping the precoated microstructure of step (a) into the mixture of step (b), followed by drying; wherein the thickener is any one or more selected from the group consisting of carboxymethyl cellulose sodium salt, sodium alginate, hyaluronic acid, methyl cellulose, hydroxyethyl cellulose, and polyvinyl pyrrolidone; and wherein the stabilizer is any one or more selected from the group consisting of trehalose, methionine, sodium phosphate, and a mixture of human serum albumin and sodium chloride.
A power distribution system , comprising: a chassis defining an inner surface and an interior , and wherein at least a portion of the inner surface includes a conductive detection layer ; at least one power distribution component received within the interior and configured to supply power from a power source to an electrical load ; an electrically resistive or high-impedance component electrically coupled between a powered portion of the at least one power distribution component and the chassis ; and a fault detection circuit comprising: a resistor electrically coupled between the conductive detection layer and ground; a voltage sensor configured to sense a voltage at the conductive detection layer by sensing or measuring the voltage across the resistor ; a controller module communicatively connected with the voltage sensor and configured to receive the sensed voltage at the conductive detection layer , to compare the sensed voltage to a threshold value, and upon satisfaction of the comparison, to indicate an arcing event between the at least one power distribution component and the conductive detection layer of the chassis has occurred. a chassis defining an inner surface and an interior , and wherein at least a portion of the inner surface includes a conductive detection layer ; at least one power distribution component received within the interior and configured to supply power from a power source to an electrical load ; an electrically resistive or high-impedance component electrically coupled between a powered portion of the at least one power distribution component and the chassis ; and a fault detection circuit comprising: a resistor electrically coupled between the conductive detection layer and ground; a voltage sensor configured to sense a voltage at the conductive detection layer by sensing or measuring the voltage across the resistor ; a controller module communicatively connected with the voltage sensor and configured to receive the sensed voltage at the conductive detection layer , to compare the sensed voltage to a threshold value, and upon satisfaction of the comparison, to indicate an arcing event between the at least one power distribution component and the conductive detection layer of the chassis has occurred. a resistor electrically coupled between the conductive detection layer and ground; a voltage sensor configured to sense a voltage at the conductive detection layer by sensing or measuring the voltage across the resistor ; a controller module communicatively connected with the voltage sensor and configured to receive the sensed voltage at the conductive detection layer , to compare the sensed voltage to a threshold value, and upon satisfaction of the comparison, to indicate an arcing event between the at least one power distribution component and the conductive detection layer of the chassis has occurred.
Medicinal biosecurity auto disposable syringe, comprising a hollow cylinder serving as a deposit of an injectable and having an upper and a lower part and a pair of wings at the upper part, the wings having an extension , a piston that slides through an interior of the cylinder dragging the injectable towards the outside of the cylinder and guaranteeing leakproofness, the piston is secured to the extension when it penetrates completely in the cylinder , a tip at the lower part of the cylinder wherein an injection mechanism comprising a standard needle , a spring and a membrane injected on the needle is housed, the spring when compressed bears the load of the needle with the membrane and releasing its energy once the mechanism is activated , and the tip of said cylinder is designed to adapt to any standard needle, wherein the piston has in its lower part a serrated crown configured in such a way that when the piston has completely penetrated in the cylinder the serrated crown is pressing on the membrane so that the membrane breaks and activates the injection mechanism, and the piston comprises a receiving chamber and a chamber seal preventing that the injectable enters the receiving chamber , the chamber seal is only broken with the interior point of the needle , provided that the injection mechanism is activated by the serrated crown of the piston , wherein, on each of the ends of the piston there is a protective disk , where the inferior disk drags the injectable and is embedded at the bottom of the cylinder and the superior disk steadies the piston within the cylinder .
A method for obtaining water from ambient air , wherein the method includes at least the following method steps: - contacting the ambient air with at least one liquid absorbent for absorbing at least a part of the water contained in the ambient air ; - delivering an absorbent diluted by the absorbed water to a first heat exchanger ; - heating the diluted absorbent by means of the first heat exchanger ; - transferring the heated and diluted absorbent into at least one desorption device , wherein at least one evaporation structure and at least one condensation structure soaked with water are arranged in the desorption device and wherein the heated and diluted absorbent is supplied to the evaporation structure in the desorption device , and an evaporation of at least a part of the water contained in the heated, diluted absorbent is effected at and/or in the evaporation structure , and that the water evaporated by means of the evaporation structure is supplied to the condensation structure for condensation of the water vapor and for obtaining desorbed water , wherein water desorbed in the desorption device is delivered to the first heat exchanger and cooling of the desorbed water is effected by means of the diluted absorbent by means of the first heat exchanger . - contacting the ambient air with at least one liquid absorbent for absorbing at least a part of the water contained in the ambient air ; - delivering an absorbent diluted by the absorbed water to a first heat exchanger ; - heating the diluted absorbent by means of the first heat exchanger ; - transferring the heated and diluted absorbent into at least one desorption device , wherein at least one evaporation structure and at least one condensation structure soaked with water are arranged in the desorption device and wherein the heated and diluted absorbent is supplied to the evaporation structure in the desorption device , and an evaporation of at least a part of the water contained in the heated, diluted absorbent is effected at and/or in the evaporation structure , and that the water evaporated by means of the evaporation structure is supplied to the condensation structure for condensation of the water vapor and for obtaining desorbed water ,
A power semiconductor device including a substrate , and a main body including an active portion that is disposed on the substrate , an edge termination portion that is disposed on the substrate and that surrounds the active portion , and an insulating layer that is disposed on the edge termination portion and spaced apart from the substrate , the edge termination portion including a first-type semiconductor region surrounding the active portion, a second-type semiconductor region surrounding the first-type semiconductor region , and a top surface that is formed on top of the first-type and second-type semiconductor regions and that underlies the insulating layer , the first-type semiconductor region being disposed adjacent to the active portion , and having a first-type doping concentration , the first-type semiconductor region and the second-type semiconductor region cooperatively forming a junction; and the power semiconductor device further including an electrode unit that includes a first electrode that is disposed on the insulating layer and that is electrically coupled to the active portion , and a second electrode that is disposed on the substrate and that is spaced apart from the main body ; the first-type doping concentration of the first-type semiconductor region being decreased along a first direction (Y) that extends from the top surface of the edge termination portion toward the substrate and that is perpendicular to the substrate ; the first-type semiconductor region of the edge termination portion including M rows of semiconductor segments (S) that are aligned in the first direction (Y), M being greater than 1, each two adjacent ones of the semiconductor segments (S) in the M rows having a first-type doping concentration difference less than 50% based on a first-type doping concentration of one of the two adjacent ones of the semiconductor segments (S) in the M rows; and the first-type doping concentration of the first-type semiconductor region is decreased from a part of the edge termination portion that is proximal to the top surface of the edge termination portion and the active portion toward the substrate and an outer peripheral surface of the edge termination portion along radial directions that are centered at a point in the part, the second-type semiconductor region having a second-type doping concentration that is increased along the first direction (Y).
A food composition in the form of an oil-in-water emulsion, comprising: • From 66 to 87 wt% of vegetable oil, based on the weight of the composition, wherein the composition comprises less than 1 wt% of microalgal oil, based on the weight of the composition, • Water, • From 0.01 to 2 wt% of microalgal protein, wherein the composition has a pH of from 2.5 to 4.8, wherein the composition is free from egg-derived ingredients wherein the composition is free from animal-derived ingredients, wherein the composition is free from any one of monoglycerides, ethoxylated monoglyceride, polyoxy-ethylene sorbitans, mono- and diesters of higher fatty acids and glycerin, derived from non-microalgae origin and wherein the composition is free from non-mustard plant protein. • From 66 to 87 wt% of vegetable oil, based on the weight of the composition, wherein the composition comprises less than 1 wt% of microalgal oil, based on the weight of the composition, • Water, • From 0.01 to 2 wt% of microalgal protein, wherein the composition has a pH of from 2.5 to 4.8, wherein the composition is free from egg-derived ingredients wherein the composition is free from animal-derived ingredients, wherein the composition is free from any one of monoglycerides, ethoxylated monoglyceride, polyoxy-ethylene sorbitans, mono- and diesters of higher fatty acids and glycerin, derived from non-microalgae origin and wherein the composition is free from non-mustard plant protein.
A method for mounting an electronic display to a vertical surface comprising the steps of: presenting an electronic display assembly module having a pair of horizontal rods (50 and 51) near the top of the electronic display assembly module and a thermal plate ; attaching a rear cover mounting bracket having a pair of hooks (300 and 301) located near a top of the rear cover mounting bracket to a vertical surface; engaging the horizontal rods (50 and 51) with the hooks (300 and 301) so that the electronic display assembly module hangs from the hooks (300 and 301) of the rear cover mounting bracket and is capable of rotational movement relative to the rear cover mounting bracket ; attaching a bottom portion of the rear cover mounting bracket to a bottom portion of the electronic display assembly module and characterized in that the step of attaching a bottom portion of the rear cover mounting bracket to a bottom portion of the electronic display assembly module creates a plenum which is sealed from the exterior air between the rear cover mounting bracket and the thermal plate by way of a gasket extending about a perimeter of the thermal plate , wherein an electrical assembly , a pair of dividing walls , and a circulating fan (75/77) are positioned within the plenum ; and in that the method comprises: activating the circulating fan (75/77) so as to circulate circulating gas within the plenum . presenting an electronic display assembly module having a pair of horizontal rods (50 and 51) near the top of the electronic display assembly module and a thermal plate ; attaching a rear cover mounting bracket having a pair of hooks (300 and 301) located near a top of the rear cover mounting bracket to a vertical surface; engaging the horizontal rods (50 and 51) with the hooks (300 and 301) so that the electronic display assembly module hangs from the hooks (300 and 301) of the rear cover mounting bracket and is capable of rotational movement relative to the rear cover mounting bracket ; attaching a bottom portion of the rear cover mounting bracket to a bottom portion of the electronic display assembly module and characterized in that the step of attaching a bottom portion of the rear cover mounting bracket to a bottom portion of the electronic display assembly module creates a plenum which is sealed from the exterior air between the rear cover mounting bracket and the thermal plate by way of a gasket extending about a perimeter of the thermal plate , wherein an electrical assembly , a pair of dividing walls , and a circulating fan (75/77) are positioned within the plenum ; and in that the method comprises: activating the circulating fan (75/77) so as to circulate circulating gas within the plenum .