mhurhangee/ep-ind-claims huggingface dataset:
An extraction device comprising: an extraction unit configured to access an entrance URL described in user-generated content generated by a user in a plurality of services in a predetermined period to extract a feature quantity, wherein when an arrival Web site is reached using the entrance URL from a multiple number of the plurality of services at the same time, the feature quantity extracted by the extraction unit includes a feature quantity regarding Web content of the arrival Web site, and a feature quantity regarding a plurality of pieces of the user-generated content generated in a predetermined period; a training unit configured to perform training by using the extracted feature quantity of the user-generated content generated by a normal user and a feature quantity of content generated by a malicious user; and a determination unit configured to determine whether or not the user-generated content has been generated by the malicious user using a trained model. an extraction unit configured to access an entrance URL described in user-generated content generated by a user in a plurality of services in a predetermined period to extract a feature quantity, wherein when an arrival Web site is reached using the entrance URL from a multiple number of the plurality of services at the same time, the feature quantity extracted by the extraction unit includes a feature quantity regarding Web content of the arrival Web site, and a feature quantity regarding a plurality of pieces of the user-generated content generated in a predetermined period; a training unit configured to perform training by using the extracted feature quantity of the user-generated content generated by a normal user and a feature quantity of content generated by a malicious user; and a determination unit configured to determine whether or not the user-generated content has been generated by the malicious user using a trained model.
A tissue repair kit, comprising: a scribing device (10, 50) having a handle (22, 52), an elongate shaft (12, 54) extending from the handle, and a scribing element (18, 58) formed on a distal end of the elongate shaft, the scribing element extending along an axis that is offset from a longitudinal axis of the elongate shaft, characterized in that the scribing element has a distal-most scribing edge that has an arcuate cross-sectional shape such that rotation of the scribing device about the longitudinal axis of the elongate shaft is effective to cause the scribing edge to form a circular mark in tissue; and the tissue repair kit comprises a biocompatible tissue repair scaffold (102, 106, 136, 158) configured to be implanted in a defect site in tissue. a scribing device (10, 50) having a handle (22, 52), an elongate shaft (12, 54) extending from the handle, and a scribing element (18, 58) formed on a distal end of the elongate shaft, the scribing element extending along an axis that is offset from a longitudinal axis of the elongate shaft, characterized in that the scribing element has a distal-most scribing edge that has an arcuate cross-sectional shape such that rotation of the scribing device about the longitudinal axis of the elongate shaft is effective to cause the scribing edge to form a circular mark in tissue; and the tissue repair kit comprises a biocompatible tissue repair scaffold (102, 106, 136, 158) configured to be implanted in a defect site in tissue.
A system for assessing lung compartment function, comprising: an oxygen control unit for delivering oxygen-enriched breathing gas to the lung compartment to elevate the oxygen level therein; and an isolation catheter configured to be attachable to the control unit, wherein the isolation catheter is configured to isolate a lung compartment and wherein the oxygen control unit is configured to deliver the oxygen-enriched breathing gas to the lung compartment using the isolation catheter; wherein the control unit is configured to monitor at least one of blood oxygen and exhaled carbon dioxide to produce an assessment of a lung compartment function by: a) determining a change in the monitored blood oxygen level or exhaled carbon dioxide level or b) determining a difference between the monitored blood oxygen level or exhaled carbon dioxide level against one or more previously obtained values; characterized in that the isolation catheter is configured to deliver one or more therapeutic agents to the isolated lung compartment based on the assessment of a lung compartment function by the control unit. an oxygen control unit for delivering oxygen-enriched breathing gas to the lung compartment to elevate the oxygen level therein; and an isolation catheter configured to be attachable to the control unit, wherein the isolation catheter is configured to isolate a lung compartment and wherein the oxygen control unit is configured to deliver the oxygen-enriched breathing gas to the lung compartment using the isolation catheter; wherein the control unit is configured to monitor at least one of blood oxygen and exhaled carbon dioxide to produce an assessment of a lung compartment function by: a) determining a change in the monitored blood oxygen level or exhaled carbon dioxide level or b) determining a difference between the monitored blood oxygen level or exhaled carbon dioxide level against one or more previously obtained values; characterized in that the isolation catheter is configured to deliver one or more therapeutic agents to the isolated lung compartment based on the assessment of a lung compartment function by the control unit.
A surface mount circuit board indicator, comprising: a printed circuit board having at least one light emitting diode die, one or more traces, at least one lens, and one or more pad locations which are conductive and located along an edge of the PCB, wherein each one of the traces is coupled to a respective pad location; a housing comprising at least one opening on a side surface along a perimeter of said housing, wherein said PCB is coupled to said housing by vertically inserting said PCB into said housing via a slot in said housing such that a light output surface of said at least one LED die faces a same direction as said at least one opening; and at least one alignment pin coupled to said housing. a printed circuit board having at least one light emitting diode die, one or more traces, at least one lens, and one or more pad locations which are conductive and located along an edge of the PCB, wherein each one of the traces is coupled to a respective pad location; a housing comprising at least one opening on a side surface along a perimeter of said housing, wherein said PCB is coupled to said housing by vertically inserting said PCB into said housing via a slot in said housing such that a light output surface of said at least one LED die faces a same direction as said at least one opening; and at least one alignment pin coupled to said housing.
A stainless steel pitting corrosion diagnostic method comprising the steps of: measuring beforehand a potential difference between a corrosion-proof potential and a pitting potential, a pitting depth, and elapsed time required for reaching the pitting depth for stainless steel having a same material as the stainless steel to be measured and preserving a mutual relation thereof as measured data, and measuring the potential difference between the corrosion-proof potential and the pitting potential for the stainless steel to be measured, comparing the measured potential difference with said mutual relation between the potential difference between the corrosion-proof potential and the pitting potential of the measured data preserved, the pitting depth, and the elapsed time required for reaching the pitting depth, and calculating from the comparison the pitting depth generated after the elapsed time in the stainless steel to be measured, thereby predicting the pitting corrosion progress generated in the stainless steel. measuring beforehand a potential difference between a corrosion-proof potential and a pitting potential, a pitting depth, and elapsed time required for reaching the pitting depth for stainless steel having a same material as the stainless steel to be measured and preserving a mutual relation thereof as measured data, and measuring the potential difference between the corrosion-proof potential and the pitting potential for the stainless steel to be measured, comparing the measured potential difference with said mutual relation between the potential difference between the corrosion-proof potential and the pitting potential of the measured data preserved, the pitting depth, and the elapsed time required for reaching the pitting depth, and calculating from the comparison the pitting depth generated after the elapsed time in the stainless steel to be measured, thereby predicting the pitting corrosion progress generated in the stainless steel.
A single-screw compressor, comprising: a screw rotor provided with a helical groove; a cylindrical wall which houses the screw rotor such that the screw rotor is rotatable; and a gear-shaped gate rotor having a plurality of flat gates and arranged outside the cylindrical wall, some of the gates entering a space inside the cylindrical wall via an opening formed in the cylindrical wall and meshing with the screw rotor so that the gate rotor rotates together with the screw rotor, and a fluid being compressed in a compression chamber defined in the helical groove by the screw rotor, the gates meshing with the screw rotor, and the cylindrical wall, characterised in that the single-screw compressor includes a gap adjuster mechanism which, to avoid contact between a front surface of the gate rotor toward the compression chamber and a sealing surface of the cylindrical wall facing the front surface when the front surface of the gate rotor approaches the sealing surface of the cylindrical wall due to thermal expansion of the gate rotor, displaces at least one of the gate rotor and the sealing surface of the cylindrical wall in an axial direction of the gate rotor. a screw rotor provided with a helical groove; a cylindrical wall which houses the screw rotor such that the screw rotor is rotatable; and a gear-shaped gate rotor having a plurality of flat gates and arranged outside the cylindrical wall, some of the gates entering a space inside the cylindrical wall via an opening formed in the cylindrical wall and meshing with the screw rotor so that the gate rotor rotates together with the screw rotor, and a fluid being compressed in a compression chamber defined in the helical groove by the screw rotor, the gates meshing with the screw rotor, and the cylindrical wall, characterised in that the single-screw compressor includes a gap adjuster mechanism which, to avoid contact between a front surface of the gate rotor toward the compression chamber and a sealing surface of the cylindrical wall facing the front surface when the front surface of the gate rotor approaches the sealing surface of the cylindrical wall due to thermal expansion of the gate rotor, displaces at least one of the gate rotor and the sealing surface of the cylindrical wall in an axial direction of the gate rotor.
Method for the additive manufacturing of a component having integrated damping for a turbomachine, comprising the following method steps: additively building up the component, and introducing a damping material into the component during the method step of additively building up the component, characterised in that an unsolidified basic material of the component is introduced as the damping material, the component is built up so as to have a cavity at least in portions and, when the component is being additively built up, an integrated supporting and/or cooling structure (6, 14) is built up in the cavity, which structure comprises a plurality of struts which extend between the exterior walls (4, 5) of the component, the damping material being introduced in the cavity in the struts. additively building up the component, and introducing a damping material into the component during the method step of additively building up the component, characterised in that an unsolidified basic material of the component is introduced as the damping material, the component is built up so as to have a cavity at least in portions and, when the component is being additively built up, an integrated supporting and/or cooling structure (6, 14) is built up in the cavity, which structure comprises a plurality of struts which extend between the exterior walls (4, 5) of the component, the damping material being introduced in the cavity in the struts.
A method of securely sharing sensitive information of a first entity with a second entity such that the second entity has useable control of the sensitive information, the method comprising: receiving, at a user input of a first computing device, input of sensitive information; transmitting the input sensitive information directly from the user input to a secure element of the first computing device, said secure element being hardwired to said user input, without passing through any application; securing the sensitive information within the secure element by at least one of encoding and encrypting the sensitive information with an encryption algorithm and key; encapsulating the secure sensitive information in at least one Internet Protocol packet for transmission across a public network; transmitting the at least one Internet Protocol packet containing the secure sensitive information from the first entity to the second entity over a packet-switched network, wherein the first entity controls the first computing device and wherein the at least one internet Protocol packet is transmitted from the first computing device to a second computing device controlled by the second entity; receiving, at the second computing device, the at least one Internet Protocol packet; using, by the second entity, the second computing device to un-encapsulate the secure sensitive information; unsecuring, within a secure element of the second computing device, the secure sensitive information by reversing the process applied at the first entity; and using, by the second entity, the unsecure sensitive information in at least one application not controlled by the first entity. receiving, at a user input of a first computing device, input of sensitive information; transmitting the input sensitive information directly from the user input to a secure element of the first computing device, said secure element being hardwired to said user input, without passing through any application; securing the sensitive information within the secure element by at least one of encoding and encrypting the sensitive information with an encryption algorithm and key; encapsulating the secure sensitive information in at least one Internet Protocol packet for transmission across a public network; transmitting the at least one Internet Protocol packet containing the secure sensitive information from the first entity to the second entity over a packet-switched network, wherein the first entity controls the first computing device and wherein the at least one internet Protocol packet is transmitted from the first computing device to a second computing device controlled by the second entity; receiving, at the second computing device, the at least one Internet Protocol packet; using, by the second entity, the second computing device to un-encapsulate the secure sensitive information; unsecuring, within a secure element of the second computing device, the secure sensitive information by reversing the process applied at the first entity; and using, by the second entity, the unsecure sensitive information in at least one application not controlled by the first entity.
An article of footwear, comprising: an upper; an outer midsole having a base coupled to the upper, and a rim portion extending from the periphery of the base, wherein the rim portion defines a plurality of spaced apart gaps; and an inner midsole disposed interiorly to the rim portion, wherein a portion of the inner midsole is disposed in at least one gap, and characterised in that a width and a depth of the gaps varies along a length of the rim portion. an upper; an outer midsole having a base coupled to the upper, and a rim portion extending from the periphery of the base, wherein the rim portion defines a plurality of spaced apart gaps; and an inner midsole disposed interiorly to the rim portion, wherein a portion of the inner midsole is disposed in at least one gap, and characterised in that a width and a depth of the gaps varies along a length of the rim portion.
A multi-virtual serial port system, comprising: more than one serial port management modules, located in the application layer of the multi-virtual serial port system and configured to call serial port resource corresponding to serial port device to perform serial port communication, wherein the serial port resource is located in the operating system layer of the multi-virtual serial port system; wherein there are more than one the serial port resources, wherein the more than one serial port resources are in one-to-one correspondence with said the more than one serial port management modules and the more than one serial port resources are in one-to-one correspondence with the more than one serial port application programs.
A machine for edgebanding wood panels or the like, each of which comprises two main faces, which are parallel and opposite to one another, and a lateral profile extending between the main faces themselves, the machine comprising a support surface for at least one panel; an edgebanding assembly; actuator means to move the panel and the edgebanding assembly relative to one another in at least one direction that is parallel to the support surface and to allow the edgebanding assembly to apply a finishing edge along at least part of the lateral profile of the panel; and a feeding device to feed a hot gas, in particular a hot gas under pressure, onto the finishing edge and/or onto the lateral profile of the panel, the feeding device comprising a feeding branch, which is provided with at least one outlet, which is configured to direct the hot gas at the finishing edge and/or at the lateral profile; the feeding device comprising, furthermore, a recirculation branch (25; 32) to cause at least part of the hot gas fed downstream of said outlet to recirculate in the feeding branch; and being characterized in comprising, furthermore, a plurality of heating devices, which are mounted in succession along the feeding branch so as to heat up the gas; the recirculation branch comprising a recirculation manifold and at least one recirculation duct, which is connected to the recirculation manifold and, furthermore, is connected to the feeding branch between two heating devices that are adjacent to one another; each recirculation duct being provided with a pressure adjusting device to selectively control the pressure of the hot gas fed by the recirculation duct into the feeding branch
A method of producing an optical element that has spatial variation in refractive index, the method comprising: providing a curable liquid crystal composition; applying a spatially varying electric field to the liquid crystal composition to induce a desired spatial variation in refractive index; and curing the liquid crystal composition by exposure to UV illumination while the electric field is still applied to fix the spatial variation in refractive index when the electric field is removed, characterized by: providing a transparent or semi-transparent pixellated electrode comprising a plurality of pixel electrodes (12.1, 12.2,... 12.n); and simultaneously applying a separate pixel voltage (V1, V2,... Vn) to each pixel electrode (12.1, 12.2,... 12.n) to apply the spatially varying electric field to the liquid crystal composition. providing a curable liquid crystal composition; applying a spatially varying electric field to the liquid crystal composition to induce a desired spatial variation in refractive index; and curing the liquid crystal composition by exposure to UV illumination while the electric field is still applied to fix the spatial variation in refractive index when the electric field is removed, characterized by: providing a transparent or semi-transparent pixellated electrode comprising a plurality of pixel electrodes (12.1, 12.2,... 12.n); and simultaneously applying a separate pixel voltage (V1, V2,... Vn) to each pixel electrode (12.1, 12.2,... 12.n) to apply the spatially varying electric field to the liquid crystal composition.
A kit for reshaping a heart, comprising: a guide catheter; a first delivery catheter configured for insertion into the guide catheter; a first plurality of tissue anchors slidably coupled to a first tether and configured for loading into the first delivery catheter; characterized by a second delivery catheter configured for insertion into the guide catheter; and a second plurality of tissue anchors slidably coupled to a second tether and configured for loading into the second delivery catheter; wherein the first delivery catheter is made from a shape memory material with a helical geometry that can be reversibly straightened with a movable stiffening wire or element, whereby the first plurality of tissue anchors and first tether form a helical ventriculoplasty implant when the first delivery catheter has assumed a helical configuration, the first delivery catheter being configured to assume the helical configuration such that surface contact between the first delivery catheter and a heart wall may be maintained once a distal end of the implant is stabilized and the stiffening wire or element is removed. a guide catheter; a first delivery catheter configured for insertion into the guide catheter; a first plurality of tissue anchors slidably coupled to a first tether and configured for loading into the first delivery catheter; characterized by a second delivery catheter configured for insertion into the guide catheter; and a second plurality of tissue anchors slidably coupled to a second tether and configured for loading into the second delivery catheter; wherein the first delivery catheter is made from a shape memory material with a helical geometry that can be reversibly straightened with a movable stiffening wire or element, whereby the first plurality of tissue anchors and first tether form a helical ventriculoplasty implant when the first delivery catheter has assumed a helical configuration, the first delivery catheter being configured to assume the helical configuration such that surface contact between the first delivery catheter and a heart wall may be maintained once a distal end of the implant is stabilized and the stiffening wire or element is removed.
Light-emitting means for a luminaire having a socket body which carries an operating device with operating electronics, and having a socket cap, wherein said socket cap on the one hand serves for arranging the socket body in a luminaire and on the other hand has latching means which engage in a releasable manner in counter-latching means belonging to the socket body, and wherein said socket body has connecting contacts for connecting leads, and wherein the operating electronics serve for activating a lamp held by the socket body, wherein said socket body carries an LED light source and is provided with an integrated cooling body which discharges the operating heat from a heat-conducting element belonging to the LED light source and wherein there is mounted, on that end of the socket body which faces away from the socket cap, the LED which is arranged on a circuit board and the connecting wires of which are connected to the operating device.