mhurhangee/ep-ind-claims huggingface dataset:
A switch comprising: a switch housing; a button moveably mounted to the housing; a magnet holder including at least one magnet (112, 112a, 112b) and moveably mounted to the housing; a magnet sensor (123; 123a) mounted to the housing and configured to measure an intensity of a magnetic field generated by the at least one magnet (112, 112a, 112b); a vane interrupter having a passage proximate to the magnet sensor (123; 123a) and configured to have an attenuating effect on the magnetic field generated by the at least one magnet (112, 112a, 112b); characterised in that the at least one magnet (112; 112a, 112b) is disposed within the passage, the magnetic holder being configured to selectively move such that the at least one magnet (112, 112a, 112b) is selectively moveable at least partially within the passage to a first position distal to the magnet sensor (123; 123a) and a second position proximate to the magnet sensor (123; 123a) relative to the first position; and wherein the attenuating effect of the vane interrupter on the magnetic field generated by the at least one magnet (112, 112a, 112b) is based on a change in position of the at least one magnet (112, 112a, 112b) within the passage from the first position to the second position or the second position to the first position. a switch housing; a button moveably mounted to the housing; a magnet holder including at least one magnet (112, 112a, 112b) and moveably mounted to the housing; a magnet sensor (123; 123a) mounted to the housing and configured to measure an intensity of a magnetic field generated by the at least one magnet (112, 112a, 112b); a vane interrupter having a passage proximate to the magnet sensor (123; 123a) and configured to have an attenuating effect on the magnetic field generated by the at least one magnet (112, 112a, 112b); characterised in that the at least one magnet (112; 112a, 112b) is disposed within the passage, the magnetic holder being configured to selectively move such that the at least one magnet (112, 112a, 112b) is selectively moveable at least partially within the passage to a first position distal to the magnet sensor (123; 123a) and a second position proximate to the magnet sensor (123; 123a) relative to the first position; and wherein the attenuating effect of the vane interrupter on the magnetic field generated by the at least one magnet (112, 112a, 112b) is based on a change in position of the at least one magnet (112, 112a, 112b) within the passage from the first position to the second position or the second position to the first position.
A biopsy system, comprising a movable base, a tissue removal system on the movable base, an imaging system on the movable base, an image display system for displaying images taken by the imaging system and at least one input console, wherein the input console is a common input console for the tissue removal system and the imaging system, wherein the tissue removal system has a plurality of connector modules (21,22) to facilitate connecting different tissue removal probes to the tissue removal system, the tissue removal system comprises a programmable tissue removal control module, at least one vacuum control module for providing a vacuum to the tissue removal system and the plurality of connector modules configured to receive the different tissue removal probes, wherein the vacuum control module has a vacuum line configured to engage the tissue removal probe and a flow control valve in the vacuum line which is controlled by the tissue removal control module to develop a vacuum within a tissue removal probe connected to a connector module (21, 22) for the tissue removal system, wherein the vacuum control module includes a vacuum source in communication with the vacuum line, and the plurality of connector modules (21, 22) is configured to receive the different tissue removal probes having software scripts stored in a memory device within the respective tissue removal probe for operating the tissue removal probe, controlling the functionalities of the tissue removal probe and to provide information to the tissue removal control module when connected thereto.
Load carrier for the drawbar of a trailer, having a base to be fastened to the drawbar and a carrying device which is held on the base and has at least one receptacle for a load, the base and the carrying device being connected to one another via at least two sliding guides (9, 10) which are arranged at a distance from one another, provide a sliding path and are designed and arranged in such a way that the carrying device can be moved, in particular linearly, by means of the sliding guides (9, 10) relative to the base from a first retracted end position into a second extended end position, characterized in that the carrying device has a base element on which the at least one receptacle for a load is held, and which has a recess which is open in the direction of the extended end position for receiving a device of the drawbar in the extended end position of the carrying device.
A method for controlling a vehicle with at least one actor (12 - 16) and a control device, the method comprising the steps: - obtaining a reference path and at least one manipulated variable; - predicting a vehicle path and a vehicle motion for a predetermined prediction horizon based on the at least one manipulated variable; - optimizing the predicted vehicle path and the predicted vehicle motion by varying the at least one manipulated variable considering at least one constraint on the vehicle motion (C j); characterized in that the method further comprises the steps: - determining a maximum path error (ε max) from a difference between the optimized predicted vehicle path and the reference path in the predetermined prediction horizon, if the maximum path error (ε max) is smaller than a lane width constraint (C lw) on the reference path, transmitting at least one manipulated variable resulting from the optimized predicted vehicle path and the optimized predicted vehicle motion to the at least one actor (12 - 16) of the vehicle; and if the maximum path error (ε max) is larger than the lane width constraint (C lw) on the reference path, extending the at least one constraint on the vehicle motion (C j), and repeating the optimization of the predicted vehicle path and the predicted vehicle motion using the at least one extended constraint on the vehicle motion (C j). - obtaining a reference path and at least one manipulated variable; - predicting a vehicle path and a vehicle motion for a predetermined prediction horizon based on the at least one manipulated variable; - optimizing the predicted vehicle path and the predicted vehicle motion by varying the at least one manipulated variable considering at least one constraint on the vehicle motion (C j); - determining a maximum path error (ε max) from a difference between the optimized predicted vehicle path and the reference path in the predetermined prediction horizon, if the maximum path error (ε max) is smaller than a lane width constraint (C lw) on the reference path, transmitting at least one manipulated variable resulting from the optimized predicted vehicle path and the optimized predicted vehicle motion to the at least one actor (12 - 16) of the vehicle; and if the maximum path error (ε max) is larger than the lane width constraint (C lw) on the reference path, extending the at least one constraint on the vehicle motion (C j), and repeating the optimization of the predicted vehicle path and the predicted vehicle motion using the at least one extended constraint on the vehicle motion (C j). extending the at least one constraint on the vehicle motion (C j), and repeating the optimization of the predicted vehicle path and the predicted vehicle motion using the at least one extended constraint on the vehicle motion (C j).
A single-shaft yaw electric bolt-tightening machine, comprising: a base, a bracket, a rotary servomotor, an encoder, an output shaft, a small pulley, a toothed belt, a big pulley, and a rotating shaft, characterized by a rotating arm, a shaft sleeve, a guide rod, a cover-plate bracket, an electric tightening shaft assembly, a sleeve, a reaction force supporting board, a dedicated sleeve, a reaction force sleeve, a servomotor, a torque sensor, an angle sensor and a connecting shaft; the bracket is fixed on the base and is provided with the rotary servomotor and the encoder; the rotary servomotor is connected with the output shaft which is provided with the small pulley, the small pulley is fitted with the big pulley by the toothed belt; the big pulley is connected with the rotating shaft; the rotating arm is provided with the shaft sleeve, and the guide rod is connected with the rotating arm by the shaft sleeve and is fixed on the cover-plate bracket in which the electric tightening shaft assembly is fixed; the servomotor, the torque sensor, the angle sensor, the connecting shaft, an electric tightener, the reaction force supporting board, the dedicated sleeve and the reaction force sleeve are mounted on the tightening shaft assembly; the torque sensor and the angle sensor are connected with the electric tightening shaft assembly through the connecting shaft, and the electric tightening shaft assembly is connected with the reaction force supporting board through the tightening shaft sleeve; the dedicated sleeve is connected with the electric tightening shaft assembly and is disposed at a lower side of the reaction force supporting board, while the reaction force sleeve is fixed at the lower side of the reaction force supporting board. a base, a bracket, a rotary servomotor, an encoder, an output shaft, a small pulley, a toothed belt, a big pulley, and a rotating shaft,
A method for making a treprostinil prodrug having the following formula: comprising, mixing, in the presence of an acid catalyst, treprostinil with an alcohol of the formula R 2 -OH, wherein R 2 is a linear C 12 -C 18 alkyl, incubating the mixture for a sufficient period of time to form the compound of Formula, wherein the acid catalyst is selected from the group consisting of sulfuric acid, hydrofluoric acid, phosphoric acid, toluenesulfonic acid, heteropoly acid and zeolites,. mixing, in the presence of an acid catalyst, treprostinil with an alcohol of the formula R 2 -OH, wherein R 2 is a linear C 12 -C 18 alkyl, incubating the mixture for a sufficient period of time to form the compound of Formula, wherein the acid catalyst is selected from the group consisting of sulfuric acid, hydrofluoric acid, phosphoric acid, toluenesulfonic acid, heteropoly acid and zeolites,.
Machine tool, in particular crosscut saw, having a tool, in particular a saw blade, and having a fixed protective hood for the tool, wherein the tool defines a main plane, i.e. in particular the saw blade defines a saw kerf plane, wherein the protective hood forms, with its side walls (11', 11"), a receiving space for a laser cut indicator that is arranged and fastened therein, wherein the laser cut indicator has a support frame and a laser unit that is adjustable therein in a number of degrees of freedom, wherein the support frame is adjustable in the receiving space in a first degree of freedom in a linear manner transversely to the saw kerf plane, and wherein the laser radiation of the laser unit is orientable onto the saw kerf plane by adjustment of the support frame in the receiving space and adjustment of the laser unit in the support frame. characterized in that at least one dome-like guide having a hollow-cylindrical basic shape is arranged on the inside of at least one side wall of the protective hood, said dome-like guide being oriented transversely to the saw kerf plane in the direction of the other side wall (11"), in that a movable element, in particular a bar, that runs with a precise fit in the guide is arranged on the support frame, and in that, by adjustment of the movable element, in particular of the bar, in the guide by means of a first adjusting means, the support frame is adjustable in the first degree of freedom in a linear manner transversely to the saw kerf plane.
A probe assembly (28, 28A, 128A) for use with a well data acquisition tool comprising: a probe (50, 150) including a body (60, 160) and a tip (62, 162) extending from the body (60, 160) along a longitudinal axis (X, X1) of the tip (62, 162) to a terminal end (68, 168), the tip (62, 162) defining a length and a surface area along the length and being configured for sensing one or more well characteristics; and a probe guard (52, 152) extending about the tip (62, 162) of the probe (50, 150), the probe guard (52, 152) protecting up to 50% of the surface area of the tip (62, 162) from a flow (F, F1) that is angularly offset from the longitudinal axis (X, X1) of the tip (62, 162) of the probe (50, 150). a probe (50, 150) including a body (60, 160) and a tip (62, 162) extending from the body (60, 160) along a longitudinal axis (X, X1) of the tip (62, 162) to a terminal end (68, 168), the tip (62, 162) defining a length and a surface area along the length and being configured for sensing one or more well characteristics; and a probe guard (52, 152) extending about the tip (62, 162) of the probe (50, 150), the probe guard (52, 152) protecting up to 50% of the surface area of the tip (62, 162) from a flow (F, F1) that is angularly offset from the longitudinal axis (X, X1) of the tip (62, 162) of the probe (50, 150).
A method for additive manufacturing by direct material deposition of a stepped part having a variable cross-section including an unsupported portion, which method comprises the steps of: a. depositing a first material lamination (201, 203) comprising a shape (211, 213) for positioning an extrinsic support (210, 215) and a gripping surface (212, 214); b. fastening a removable extrinsic support (210, 215) extending between said first lamination and the free surface of the unsupported portion not yet made, on the positioning shape (211, 213) while allowing the gripping surface (212, 214) to emerge from said first lamination; c. depositing a lamination, called free lamination (202, 204), on said support (210, 215) and on the gripping surface (212, 214) of the first lamination, said free lamination comprising a shape for positioning an extrinsic support and a gripping surface, steps b) and c) being repeated until the part is made; d. dismounting the support (210, 215) after solidification of the free lamination (202, 204). a. depositing a first material lamination (201, 203) comprising a shape (211, 213) for positioning an extrinsic support (210, 215) and a gripping surface (212, 214); b. fastening a removable extrinsic support (210, 215) extending between said first lamination and the free surface of the unsupported portion not yet made, on the positioning shape (211, 213) while allowing the gripping surface (212, 214) to emerge from said first lamination; c. depositing a lamination, called free lamination (202, 204), on said support (210, 215) and on the gripping surface (212, 214) of the first lamination, said free lamination comprising a shape for positioning an extrinsic support and a gripping surface, steps b) and c) being repeated until the part is made; d. dismounting the support (210, 215) after solidification of the free lamination (202, 204).
Use of a compound that suppresses the emission of soot particulates in a liquid fuel composition comprising a mixture of hydrocarbons for a compression-ignition engine, characterised in that the compound is an aromatic cyclic hydrocarbon compound whose ring contains at least five carbon atoms, which compound contains at least one oxygen atom, the at least one oxygen atom is outside the ring, wherein the liquid fuel composition including said compound has a cetane number of 10-35.
An apparatus comprising: a dimmable window panel (406; 700) having an inner portion (500; 718) and an outer portion (502; 716) around the inner portion; and a heating system (408; 600; 702) thermally connected to the outer portion of the dimmable window panel; characterized in that: the heating system is configured to heat the outer portion in a manner that reduces a temperature gradient between the inner portion and the outer portion of the dimmable window panel. a dimmable window panel (406; 700) having an inner portion (500; 718) and an outer portion (502; 716) around the inner portion; and a heating system (408; 600; 702) thermally connected to the outer portion of the dimmable window panel; characterized in that: the heating system is configured to heat the outer portion in a manner that reduces a temperature gradient between the inner portion and the outer portion of the dimmable window panel.
A nasal air moisturizing device to be used with a nasal cannula having a pair of nasal prongs for delivering gas to a patient's nostrils, said device comprising: - an external shell configured to be removably attached to the nasal cannula, the shell comprising an interior volume and a pair of apertures through which nasal prongs pass when the moisturizing device is attached to the nasal cannula; - a moisture absorbent material at least partially disposed within the interior volume of the shell and including a pair of protrusions which extend outwardly through apertures in the shell, the protrusions configured: (a) to be positioned over nasal prongs of the nasal cannula when the shell is attached to the nasal cannula, and (b) to receive moisturizing liquid and release the moisturizing liquid into breathing gas being delivered through the prongs; and - a reservoir carried by the shell and disposed within the interior volume of the shell, the reservoir configured to hold the moisturizing liquid, wherein the moisture absorbent material receives moisturizing liquid from the reservoir. - an external shell configured to be removably attached to the nasal cannula, the shell comprising an interior volume and a pair of apertures through which nasal prongs pass when the moisturizing device is attached to the nasal cannula; - a moisture absorbent material at least partially disposed within the interior volume of the shell and including a pair of protrusions which extend outwardly through apertures in the shell, the protrusions configured: (a) to be positioned over nasal prongs of the nasal cannula when the shell is attached to the nasal cannula, and (b) to receive moisturizing liquid and release the moisturizing liquid into breathing gas being delivered through the prongs; and (a) to be positioned over nasal prongs of the nasal cannula when the shell is attached to the nasal cannula, and (b) to receive moisturizing liquid and release the moisturizing liquid into breathing gas being delivered through the prongs; and - a reservoir carried by the shell and disposed within the interior volume of the shell, the reservoir configured to hold the moisturizing liquid, wherein the moisture absorbent material receives moisturizing liquid from the reservoir.
A compound or a pharmaceutical composition comprising such a compound and a pharmaceutically acceptable carrier, wherein the compound is a schweinfurthin, or a pharmaceutically acceptable salt, hydrate, or solvate thereof, wherein the schweinfurthin is schweinfurthin B, 5'-methylschweinfurthin E, or 5'-methylschweinfurthin G, for use in preventing or treating an undesirable condition of neurofibromatosis type 1 in a subject carrying cells homozygous null for the neurofibromatosis type 1 gene or a subject that is haploinsufficient for the neurofibromatosis type 1 gene.
A method of detecting an exploit of a vulnerability of a computing device, the method comprising: receiving an execution flow, by an observer CPU, of at least one process running in a processor of the computing device, wherein the execution flow is received from a performance monitoring unit, PMU, of the processor; receiving memory pages, by the observer CPU, from a memory of the computing device;reconstructing the execution flow of the process on the observer CPU based on PMU data and the memory pages; running an exploit detection algorithm on the reconstructed process in order to identify an exploit attempt, the method characterised in that the exploit detection algorithm comprising: mapping a memory allocation function and a memory deallocation function; checking (503, 505), by the observer CPU, if at least one of the memory allocation function and the memory deallocation function is called; increasing (504, 506), by the observer CPU, at least one of allocation counter and deallocation counter in cases where the corresponding at least one function is called; checking, by the observer CPU, if difference of allocation counter and deallocation counter is greater than a predefined value; and issuing an alert, by the observer CPU, upon the difference being greater than the predefined value. receiving an execution flow, by an observer CPU, of at least one process running in a processor of the computing device, wherein the execution flow is received from a performance monitoring unit, PMU, of the processor; receiving memory pages, by the observer CPU, from a memory of the computing device;reconstructing the execution flow of the process on the observer CPU based on PMU data and the memory pages; running an exploit detection algorithm on the reconstructed process in order to identify an exploit attempt, the method characterised in that the exploit detection algorithm comprising: mapping a memory allocation function and a memory deallocation function; checking (503, 505), by the observer CPU, if at least one of the memory allocation function and the memory deallocation function is called; increasing (504, 506), by the observer CPU, at least one of allocation counter and deallocation counter in cases where the corresponding at least one function is called; checking, by the observer CPU, if difference of allocation counter and deallocation counter is greater than a predefined value; and issuing an alert, by the observer CPU, upon the difference being greater than the predefined value. mapping a memory allocation function and a memory deallocation function; checking (503, 505), by the observer CPU, if at least one of the memory allocation function and the memory deallocation function is called; increasing (504, 506), by the observer CPU, at least one of allocation counter and deallocation counter in cases where the corresponding at least one function is called; checking, by the observer CPU, if difference of allocation counter and deallocation counter is greater than a predefined value; and issuing an alert, by the observer CPU, upon the difference being greater than the predefined value.
A thermosetting resin composition for molding compound comprising a novolac-type phenolic resin, a polyacetal resin and a curing catalyst represented by a general formula, wherein, R 1 to R 12 each denote any of a hydrogen, an alkyl group having 1 to 4 carbon atoms, a hydroxyl group and a group represented by a formula to, and two or more of R 1 to R 12 are a group represented by the formula, or and may be the same or different from each other; wherein, R 13 to R 17 each denote any of a hydrogen, an alkyl group having 1 to 4 carbon atoms, a hydroxyl group, an alkoxy group, a halogen, a nitro group, a nitroso group, a sulfonic group, a carboxyl group, a cyano group, an amino group, an ammonio group, a trialkylammonio group and a group represented by a formula or; wherein R 18 denotes a hydrogen or an alkyl group having 1 to 4 carbon atoms; wherein R 19 denotes an alkyl group having 1 to 4 carbon atoms, wherein the curing catalyst is a compound represented by the general formula having a group represented by the formula, or as R 1 and R 3, a compound represented by the general formula having a group represented by the formula, or as R 1 and R 5, a compound represented by the general formula having a group represented by the formula, or as R 1 and R 7, or a compound represented by the general formula having a group represented by the formula, or as R 1, R 5 and R 9.