mhurhangee/patent-ind-claim-en huggingface dataset:
A method for implementation by one or more processors forming part of at least one computing device, the method comprising: receiving by an input module of a neural network system from a computer device communicatively coupled to the neural network system an instruction sequence, written in a scripting language that can be executed without compilation or written in a programming language that requires compilation prior to execution; processing the instruction sequence with a trained machine learning model configured to at least detect one or more interdependencies amongst a plurality of tokens in the instruction sequence, wherein the tokens in an instruction sequence are the individual terms that appear in the instruction sequence, and to determine a classification for the instruction sequence as malicious or benign based on the one or more interdependencies amongst the plurality of tokens; and providing to the computer device via an output module of the neural network system , as an output, the classification of the instruction sequence, wherein the trained machine learning model comprises a trained neural network and wherein the trained neural network comprises a trained long short-term memory neural network, wherein the method further comprises: generating, by the trained long short-term memory neural network, vector representations of the plurality of tokens in the instruction sequence. receiving by an input module of a neural network system from a computer device communicatively coupled to the neural network system an instruction sequence, written in a scripting language that can be executed without compilation or written in a programming language that requires compilation prior to execution; processing the instruction sequence with a trained machine learning model configured to at least detect one or more interdependencies amongst a plurality of tokens in the instruction sequence, wherein the tokens in an instruction sequence are the individual terms that appear in the instruction sequence, and to determine a classification for the instruction sequence as malicious or benign based on the one or more interdependencies amongst the plurality of tokens; and providing to the computer device via an output module of the neural network system , as an output, the classification of the instruction sequence, wherein the trained machine learning model comprises a trained neural network and wherein the trained neural network comprises a trained long short-term memory neural network, wherein the method further comprises: generating, by the trained long short-term memory neural network, vector representations of the plurality of tokens in the instruction sequence.
A probe for spray ionization comprising: a porous material and; a hollow capillary tube inserted into a distal portion of the porous material, wherein the hollow capillary tube extends beyond a distal end of the porous material.
Domestic appliance comprising an assembly which has at least the following features: a first component which has an outer side and a rear side remote from the outer side , the outer side of the first component being at least partially contactable from outside the domestic appliance when the domestic appliance is assembled, the first component being formed of an electrically conductive material; a second component , the second component being fastened to the rear side of the first component , a receiving space being arranged between the first component and the second component when the second component is fastened to the first component ; and a spring element , the spring element being arranged at least in part in the receiving space and the first component and the second component being clamped therebetween so as to be in contact, the spring element being formed of an electrically conductive material, the spring element having a plug portion for connecting an earthing wire ; characterised in that the spring element comprises a first leg for abutment against the first component , a second leg for abutment against the second component , and a bending portion , the first leg and the second leg being arranged so as to be movable and angled relative to one another by means of the bending portion ; and in that the plug portion of the spring element is formed as a partial portion of the second leg in the region of the bending portion . a first component which has an outer side and a rear side remote from the outer side , the outer side of the first component being at least partially contactable from outside the domestic appliance when the domestic appliance is assembled, the first component being formed of an electrically conductive material; a second component , the second component being fastened to the rear side of the first component , a receiving space being arranged between the first component and the second component when the second component is fastened to the first component ; and a spring element , the spring element being arranged at least in part in the receiving space and the first component and the second component being clamped therebetween so as to be in contact, the spring element being formed of an electrically conductive material, the spring element having a plug portion for connecting an earthing wire ; characterised in that the spring element comprises a first leg for abutment against the first component , a second leg for abutment against the second component , and a bending portion , the first leg and the second leg being arranged so as to be movable and angled relative to one another by means of the bending portion ; and in that the plug portion of the spring element is formed as a partial portion of the second leg in the region of the bending portion .
A plug-in contact for making electrical contact with a circuit board by means of plugging the plug-in contact into a contact hole of the circuit board , with two flat contact legs which are resilient relative to one another, and a connecting region , from which the two contact legs extend in the plug-in direction (E) of the plug-in contact , wherein the plug-in contact is punched in one piece out of a metallic flat material, wherein a recess is made in the connecting region , bordering the two contact legs , wherein the two contact legs , starting from the recess , have a distance from one another which increases in the direction of their free ends , wherein the two contact legs have a spread state relative to one another, characterized in that the two contact legs together have a width (B) which is suitable of being equal to or only slightly smaller than the diameter (D) of the corresponding contact hole in the circuit board , and that the recess ensures that the point at which the contact legs are separate from one another is defined exactly. wherein a recess is made in the connecting region , bordering the two contact legs , wherein the two contact legs , starting from the recess , have a distance from one another which increases in the direction of their free ends , wherein the two contact legs have a spread state relative to one another, characterized in that the two contact legs together have a width (B) which is suitable of being equal to or only slightly smaller than the diameter (D) of the corresponding contact hole in the circuit board , and that the recess ensures that the point at which the contact legs are separate from one another is defined exactly.
An electronic element mounting substrate , comprising: a first substrate comprising a first principal face and a second principal face located opposite to the first principal face; a second substrate located inside the first substrate in a plan view of the electronic element mounting substrate , the second substrate comprising a third principal face located on a first principal face side in a thickness direction of the second substrate and a fourth principal face located opposite to the third principal face, the second substrate being made of a carbon material; and a plurality of via conductors that are, in the plan view of the electronic element mounting substrate , arranged in the first substrate with the second substrate in between, in the plan view of the electronic element mounting substrate , heat conduction of the second substrate being greater in a direction perpendicular to a direction in which the plurality of via conductors are arranged with the second substrate in between than in the direction in which the plurality of via conductors are arranged with the second substrate in between. a first substrate comprising a first principal face and a second principal face located opposite to the first principal face; a second substrate located inside the first substrate in a plan view of the electronic element mounting substrate , the second substrate comprising a third principal face located on a first principal face side in a thickness direction of the second substrate and a fourth principal face located opposite to the third principal face, the second substrate being made of a carbon material; and a plurality of via conductors that are, in the plan view of the electronic element mounting substrate , arranged in the first substrate with the second substrate in between, in the plan view of the electronic element mounting substrate , heat conduction of the second substrate being greater in a direction perpendicular to a direction in which the plurality of via conductors are arranged with the second substrate in between than in the direction in which the plurality of via conductors are arranged with the second substrate in between.
A power conversion device configured to perform DC/AC power conversion via an intermediate bus , the power conversion device comprising: a first DC/DC converter (1 or 2) provided between a first DC power supply or a load, and the intermediate bus ; a second DC/DC converter (2 or 1) provided between a DC-side capacitor (5 or 4) and the intermediate bus ; an intermediate capacitor connected to the intermediate bus ; a DC/AC converter provided between the intermediate bus and an AC grid; and a control unit configured to control the first DC/DC converter (1 or 2), the second DC/DC converter (2 or 1), and the DC/AC converter , characterized in that : the control unit is configured to make such current command value setting that mainly the second DC/DC converter (2 or 1) supplies a reactive current flowing through the intermediate bus . a first DC/DC converter (1 or 2) provided between a first DC power supply or a load, and the intermediate bus ; a second DC/DC converter (2 or 1) provided between a DC-side capacitor (5 or 4) and the intermediate bus ; an intermediate capacitor connected to the intermediate bus ; a DC/AC converter provided between the intermediate bus and an AC grid; and a control unit configured to control the first DC/DC converter (1 or 2), the second DC/DC converter (2 or 1), and the DC/AC converter , characterized in that : the control unit is configured to make such current command value setting that mainly the second DC/DC converter (2 or 1) supplies a reactive current flowing through the intermediate bus .
A method for producing a pharmaceutical composition, the method comprising: (a) growing a non-sporulating form of a host bacterium that is genetically engineered to express a single type of nematicidal crystal protein, wherein the non-sporulating host bacterium produces bioactive nematicidal crystals formed from the single type of nematicidal crystal protein, wherein the host bacterium is grown in a growth medium; and (b) concentrating the non-sporulating host bacterium; (c) exposing the concentrated, non-sporulating host bacterium to an antimicrobial compound comprising terpene, hexane, or formaldehyde to inactivate the non-sporulating host bacterium; and (d) adding a food-grade oil to the inactivated non-sporulating host bacterium to extract the antimicrobial compound, soluble cell components, lipids, and cell wall debris from the nematicidal crystal protein. (a) growing a non-sporulating form of a host bacterium that is genetically engineered to express a single type of nematicidal crystal protein, wherein the non-sporulating host bacterium produces bioactive nematicidal crystals formed from the single type of nematicidal crystal protein, wherein the host bacterium is grown in a growth medium; and (b) concentrating the non-sporulating host bacterium; (c) exposing the concentrated, non-sporulating host bacterium to an antimicrobial compound comprising terpene, hexane, or formaldehyde to inactivate the non-sporulating host bacterium; and (d) adding a food-grade oil to the inactivated non-sporulating host bacterium to extract the antimicrobial compound, soluble cell components, lipids, and cell wall debris from the nematicidal crystal protein.
An apparatus comprising: a vibratory separator having a frame and a screen; a lift housing disposed proximate the vibratory separator ; a lift system disposed in the lift housing and configured to selectively engage a portion of the vibratory separator to lift the portion of the vibratory separator ; and an alignment device coupled to the lift system and configured to engage a corresponding alignment device coupled to the portion of the vibratory separator ; characterized in that the alignment device has a conical shape and the corresponding alignment device has a conical shape. a vibratory separator having a frame and a screen; a lift housing disposed proximate the vibratory separator ; a lift system disposed in the lift housing and configured to selectively engage a portion of the vibratory separator to lift the portion of the vibratory separator ; and an alignment device coupled to the lift system and configured to engage a corresponding alignment device coupled to the portion of the vibratory separator ; characterized in that the alignment device has a conical shape and the corresponding alignment device has a conical shape.
Modular additive manufacturing system characterized in that it comprises a main rigid frame and: a) A deposition subsystem, composed of at least one upper deposition module and at least one lower deposition module , mounted on at least one pair of upper rails , wherein, the upper deposition module comprises an upper actuation mechanism assembled to an upper gantry , which in turn is assembled to a lower rail , which supports a lower actuation mechanism and where an upper deposition head moves, comprising at least one deposition nozzle ; and the lower deposition module comprises an upper actuation mechanism assembled to a lower gantry , which in turn is assembled to a lower rail , which supports a lower actuation mechanism and where a lower deposition head moves, comprising at least one deposition nozzle ; b) A support subsystem, composed of at least one platform module , connected to the main rigid frame using fixation elements ; c) A control subsystem for the control of the deposition subsystem and the support subsystem. a) A deposition subsystem, composed of at least one upper deposition module and at least one lower deposition module , mounted on at least one pair of upper rails , wherein, the upper deposition module comprises an upper actuation mechanism assembled to an upper gantry , which in turn is assembled to a lower rail , which supports a lower actuation mechanism and where an upper deposition head moves, comprising at least one deposition nozzle ; and the lower deposition module comprises an upper actuation mechanism assembled to a lower gantry , which in turn is assembled to a lower rail , which supports a lower actuation mechanism and where a lower deposition head moves, comprising at least one deposition nozzle ; the upper deposition module comprises an upper actuation mechanism assembled to an upper gantry , which in turn is assembled to a lower rail , which supports a lower actuation mechanism and where an upper deposition head moves, comprising at least one deposition nozzle ; and the lower deposition module comprises an upper actuation mechanism assembled to a lower gantry , which in turn is assembled to a lower rail , which supports a lower actuation mechanism and where a lower deposition head moves, comprising at least one deposition nozzle ; b) A support subsystem, composed of at least one platform module , connected to the main rigid frame using fixation elements ; c) A control subsystem for the control of the deposition subsystem and the support subsystem.
A side glazing unit of a means of transportation comprising a transparent display comprising an image-production system configured to display digital format images, characterized in that said transparent display is located in only one portion of the glazing unit insofar as it is possible to see through a portion of the glazing unit without having to look through the transparent display , and in that said glazing unit comprises at least one light-guiding substrate located nearer the exterior than said display, at least one light source located on the periphery of said light-guiding substrate , in particular facing an edge face of said substrate , and a means for extracting the light emitted by the light source, said light source preferably being formed from a plurality of light emitting diodes.
A process fluid pressure transmitter having a remote pressure sensor, the transmitter comprising: an electronics housing ; a loop communicator disposed in the electronics housing and being configured to communicate in accordance with a process communication protocol; a controller disposed within the electronics housing and coupled to the loop communicator ; sensor measurement circuitry disposed within the electronics housing and coupled to the controller ; a remote pressure sensor housing configured to couple to a process equipment and being spaced from the electronics housing ; a pressure sensor disposed within the remote pressure sensor housing , the pressure sensor forming at least one electrical component having an electrical characteristic that varies with process fluid pressure; and wherein portions of the electrical component are coupled directly to a multiconductor cable that operably connects the pressure sensor to the sensor measurement circuitry . an electronics housing ; a loop communicator disposed in the electronics housing and being configured to communicate in accordance with a process communication protocol; a controller disposed within the electronics housing and coupled to the loop communicator ; sensor measurement circuitry disposed within the electronics housing and coupled to the controller ; a remote pressure sensor housing configured to couple to a process equipment and being spaced from the electronics housing ; a pressure sensor disposed within the remote pressure sensor housing , the pressure sensor forming at least one electrical component having an electrical characteristic that varies with process fluid pressure; and wherein portions of the electrical component are coupled directly to a multiconductor cable that operably connects the pressure sensor to the sensor measurement circuitry .
A temperature probe , particularly for thermoplastic mix extrusion machines, which comprises at least one casing , which is adapted to be inserted in an extrusion cylinder substantially at right angles to the extrusion direction with one end thereof facing into the internal cavity of said extrusion cylinder so that it is in direct contact with the extrusion material contained in said internal cavity of said extrusion cylinder , at least one thermocouple , which is accommodated in said at least one casing and is adapted to detect the temperature of said extrusion material by thermal conduction through said at least one casing and thermally insulating means which are interposed at least partially between said at least one casing and said extrusion cylinder , so as to reduce the thermal influence of said extrusion cylinder on the measurement made by said at least one thermocouple , said at least one casing having a shape that is elongated along a preferred direction, characterised in that the end of the casing that is intended to come into contact with said extrusion material has a concave surface which reproduces the curvature of the internal wall of said extrusion cylinder .
An apparatus comprising a grounding clip for an organic matrix composite gas turbine guide vane with a metallic sheath , the apparatus comprising said organic matrix composite guide vane , which comprises a body having a leading edge and a trailing edge opposite the leading edge and a root end extending between said leading edge and said trailing edge , the apparatus further comprising said metallic sheath , which is attached proximate said leading edge and extends to said root end , wherein the apparatus further comprises: a metallic attachment fitting having a receiver configured to receive said root end of said organic matrix composite guide vane for coupling said organic matrix composite guide vane to said metallic attachment fitting , wherein said grounding clip is coupled to said sheath proximate said root end , and said grounding clip is electrically connected to said metallic attachment fitting and said metallic sheath . a metallic attachment fitting having a receiver configured to receive said root end of said organic matrix composite guide vane for coupling said organic matrix composite guide vane to said metallic attachment fitting , wherein said grounding clip is coupled to said sheath proximate said root end , and said grounding clip is electrically connected to said metallic attachment fitting and said metallic sheath .
A powered wheelchair comprising: a frame ; an arm assembly including an arm that is pivotably coupled to the frame , the arm assembly including a wheel coupled to the arm ; a suspension coupled to the frame and to the arm assembly , the suspension configured to resist pivoting of the arm assembly relative to the frame ; a drive system coupled to the arm assembly and configured to drive a drive wheel ; an arm limiter pivotably coupled to the suspension and coupled to one or more of the arm assembly and the drive system in an engaged position, the arm limiter being configured to limit movement of the arm assembly in the engaged position; and an expandable traction member coupled to one or more of the arm assembly and the drive system and to the frame , wherein the arm assembly includes a catch , and the arm limiter is coupled to the catch in the engaged position. a frame ; an arm assembly including an arm that is pivotably coupled to the frame , the arm assembly including a wheel coupled to the arm ; a suspension coupled to the frame and to the arm assembly , the suspension configured to resist pivoting of the arm assembly relative to the frame ; a drive system coupled to the arm assembly and configured to drive a drive wheel ; an arm limiter pivotably coupled to the suspension and coupled to one or more of the arm assembly and the drive system in an engaged position, the arm limiter being configured to limit movement of the arm assembly in the engaged position; and an expandable traction member coupled to one or more of the arm assembly and the drive system and to the frame , wherein the arm assembly includes a catch , and the arm limiter is coupled to the catch in the engaged position.