mhurhangee/patent-ind-claim-en huggingface dataset:
A method for assigning a vulnerability parameter to a device on a network, comprising: defining a vulnerability parameter for an operating system or service; storing the vulnerability parameter in a host profile associated with a network device in a network map; providing a graphical user interface for viewing and modifying the vulnerability parameter to be tagged as invalid or valid indicating the applicability of the vulnerability parameter to the network device; and storing the modified vulnerability parameter in the host profile, wherein when the vulnerability parameter is tagged as invalid for the network device and a pre-defined change in the operating system or service occurs on the network device, a new lookup of the applicability of the vulnerability parameter to the network device is performed and the vulnerability parameter is modified to be tagged as valid, if applicable, for the network device, wherein the host profile further includes one or more host attributes associated with a universal unique identifier to allow high availability peers and managed sensors to differentiate between locally and remotely generated host attributes, the network map being synchronized to a high availability peer which is a second system storing a second copy of the network map, wherein the one or more host attributes of the host profile can be modified on the high availability peer, wherein the network map with the host profile including any modified host attributes is synchronized between multiple high availability peers storing the network map. defining a vulnerability parameter for an operating system or service; storing the vulnerability parameter in a host profile associated with a network device in a network map; providing a graphical user interface for viewing and modifying the vulnerability parameter to be tagged as invalid or valid indicating the applicability of the vulnerability parameter to the network device; and storing the modified vulnerability parameter in the host profile, wherein when the vulnerability parameter is tagged as invalid for the network device and a pre-defined change in the operating system or service occurs on the network device, a new lookup of the applicability of the vulnerability parameter to the network device is performed and the vulnerability parameter is modified to be tagged as valid, if applicable, for the network device, wherein the host profile further includes one or more host attributes associated with a universal unique identifier to allow high availability peers and managed sensors to differentiate between locally and remotely generated host attributes, the network map being synchronized to a high availability peer which is a second system storing a second copy of the network map, wherein the one or more host attributes of the host profile can be modified on the high availability peer, wherein the network map with the host profile including any modified host attributes is synchronized between multiple high availability peers storing the network map.
A cooling device with at least two cooling circuits , which are respectively connected via a venting line and a filling line to a common equalizing vessel for coolant, characterized in that at least one of the filling lines is provided with an air-cooled heat exchanger , by means of which coolant is precooled before it enters the cooling circuit assigned to this filling line , wherein the air-cooled heat exchanger is designed as a first subregion of a coolant cooler , which is separated from a second subregion of the coolant cooler , wherein both the first and the second subregion have their own inlet and outlet for coolant.
A method for the dehydration of acetic acid comprising the steps of: contacting an aqueous solution of acetic acid with a membrane comprising an acid-resistant polybenzimidazole (PBI) membrane chemically modified by a process selected from the group consisting of sulfonation, phosphonation, and/or combinations thereof; taking away a permeate stream rich in water; and taking away a concentrate stream rich in acetic acid. contacting an aqueous solution of acetic acid with a membrane comprising an acid-resistant polybenzimidazole (PBI) membrane chemically modified by a process selected from the group consisting of sulfonation, phosphonation, and/or combinations thereof; taking away a permeate stream rich in water; and taking away a concentrate stream rich in acetic acid.
A process for the preparation of a multimodal polyolefin polymer in a first polymerization reactor and a second polymerization reactor connected in series, wherein a first polyolefin polymer is prepared in the first polymerization reactor in suspension in the presence of hydrogen and a second polyolefin polymer is prepared in the second polymerization reactor in the presence of a lower concentration of hydrogen than in the first polymerization reactor, the process comprising: a) withdrawing a suspension of solid polyolefin particles in a suspension medium from the first polymerization reactor, wherein the suspension medium comprises hydrogen and a hydrocarbon mixture having an initial boiling point of at least 50 °C and a final boiling point of at most 120 °C; b) feeding the suspension to a flash drum having a pressure controlled by a vacuum pump, wherein the pressure of the flash drum is less than 0.1 MPa; c) vaporizing a part of the suspension medium in the flash drum to obtain a hydrogen-depleted suspension and d) withdrawing the hydrogen-depleted suspension from the flash drum and feeding it to the second polymerization reactor. a) withdrawing a suspension of solid polyolefin particles in a suspension medium from the first polymerization reactor, wherein the suspension medium comprises hydrogen and a hydrocarbon mixture having an initial boiling point of at least 50 °C and a final boiling point of at most 120 °C; b) feeding the suspension to a flash drum having a pressure controlled by a vacuum pump, wherein the pressure of the flash drum is less than 0.1 MPa; c) vaporizing a part of the suspension medium in the flash drum to obtain a hydrogen-depleted suspension and d) withdrawing the hydrogen-depleted suspension from the flash drum and feeding it to the second polymerization reactor.
A chip slot, comprising a slot and two rows of metal sheets located in the slot , wherein one row of metal sheets are disposed on one inner side wall of the slot , the other row of metal sheets are disposed on the other inner side wall of the slot , the one inner side wall is opposite to the other inner side wall, and an extension direction of a long side of the inner side walls is the same as a length direction of the slot ; the two rows of metal sheets are grouped into a plurality of terminal groups , wherein each terminal group comprises at least one terminal and each terminal comprises at least one pair of metal sheets , one metal sheet in each pair of metal sheets is located in one row, the other metal sheet is located in the other row, and each pair of metal sheets are symmetrically disposed in the slot ; wherein each metal sheet has a bending pin that extends outside the slot and bending directions of bending pins of a plurality of metal sheets located in a same terminal group are same, bending directions corresponding to two adjacent terminal groups (20a; 20b) are opposite, and a bending direction corresponding to the terminal group refers to bending directions of bending pins of a plurality of metal sheets located in the terminal group , characterised in that a pad is disposed at an end of the bending pin of each metal sheet , wherein solder is disposed on the pad. the two rows of metal sheets are grouped into a plurality of terminal groups , wherein each terminal group comprises at least one terminal and each terminal comprises at least one pair of metal sheets , one metal sheet in each pair of metal sheets is located in one row, the other metal sheet is located in the other row, and each pair of metal sheets are symmetrically disposed in the slot ; wherein each metal sheet has a bending pin that extends outside the slot and bending directions of bending pins of a plurality of metal sheets located in a same terminal group are same, bending directions corresponding to two adjacent terminal groups (20a; 20b) are opposite, and a bending direction corresponding to the terminal group refers to bending directions of bending pins of a plurality of metal sheets located in the terminal group , characterised in that a pad is disposed at an end of the bending pin of each metal sheet , wherein solder is disposed on the pad.
A system of vehicular generators of a vehicle provided with two or more electric generators, in particular for heavy vehicles such as trucks or buses, each electric generator being of an smart type, provided with its own processing means and communicating data means, said one or more electric generators being operatively connected to a PTO by means of a belt (BL) defining a movement direction, characterized in that said movement direction identifies a first electric generator (G3) and then a second electric generator (G2) along said movement direction starting from said PTO; and in that said system comprises processing means (VCU, ECU, G3, G2, etc.) configured to manage an activation of said first electric generator (G3) and configured to manage an activation of said second electric generator (G2) when a temperature of said first electric generator (G3) exceeds a predefined activation threshold (ThU).
Sensor arrangement, which comprises measuring electronics and a sensor structure that can be fitted onto a base , the sensor structure comprises at least one sensor, and the arrangement is adapted to determine, by means of the data measured by the measuring electronics and the sensor, whether the moisture of the base has changed, and the arrangement is further adapted to determine, on the basis of the data measured by the measuring electronics and the sensor, the presence of a person on the base, characterized in that the sensor comprises electrodes which electrodes to be used in measuring the change in moisture are in the same sensor structure as the structure detecting the force exerted on the sensor by a person, the sensor of the sensor arrangement comprises at least three electrodes , which are insulated from each other and arranged in such a way that the arrangement is adapted to determine the moisture level by measuring the resistance between the first and the second electrodes, and to determine a presence by means of the force exerted on a sensor by measuring the capacitance between the first and the third electrodes and/or between the second and the third electrodes, the sensor arrangement is adapted to determine a change in the moisture of the base by measuring the resistance between the electrodes and by comparing it to a reference value that has been measured and recorded when the base was dry, and the sensor arrangement is adapted to determine a presence by measuring the capacitance between the electrodes and by comparing it to a reference value that has been measured and recorded when the base was empty. the sensor structure comprises at least one sensor, and the arrangement is adapted to determine, by means of the data measured by the measuring electronics and the sensor, whether the moisture of the base has changed, and the arrangement is further adapted to determine, on the basis of the data measured by the measuring electronics and the sensor, the presence of a person on the base, characterized in that the sensor comprises electrodes which electrodes to be used in measuring the change in moisture are in the same sensor structure as the structure detecting the force exerted on the sensor by a person, the sensor of the sensor arrangement comprises at least three electrodes , which are insulated from each other and arranged in such a way that the arrangement is adapted to determine the moisture level by measuring the resistance between the first and the second electrodes, and to determine a presence by means of the force exerted on a sensor by measuring the capacitance between the first and the third electrodes and/or between the second and the third electrodes, the sensor arrangement is adapted to determine a change in the moisture of the base by measuring the resistance between the electrodes and by comparing it to a reference value that has been measured and recorded when the base was dry, and the sensor arrangement is adapted to determine a presence by measuring the capacitance between the electrodes and by comparing it to a reference value that has been measured and recorded when the base was empty.
A support structure for a shift lever comprising; a rotation shaft coupled to the shift lever ; and a base plate including a support that pivotally supports two end portions of the rotation shaft to tiltably support the shift lever ; the support structure being characterized by further comprising: a restriction member coupled to the base plate in contact with the rotation shaft ; and a fixing portion that fixes the restriction member to the base plate , wherein the base plate includes a guide that guides the coupling of the restriction member to the base plate , the rotation shaft includes a main protrusion (Pm), which protrudes in an axial direction (b) of the rotation shaft from an end surface (Sa) at one of the two end portions of the rotation shaft , and an auxiliary protrusion (Ps), which protrudes in the axial direction (b) of the rotation shaft from the end surface (Sa) by a smaller protrusion amount (L2) than the main protrusion (Pm), and the restriction member is fixed in contact with the main protrusion (Pm) of the rotation shaft thereby restricting movement of the rotation shaft in the axial direction (b) in cooperation with the restriction member and the support . a restriction member coupled to the base plate in contact with the rotation shaft ; and a fixing portion that fixes the restriction member to the base plate , wherein the base plate includes a guide that guides the coupling of the restriction member to the base plate , the rotation shaft includes a main protrusion (Pm), which protrudes in an axial direction (b) of the rotation shaft from an end surface (Sa) at one of the two end portions of the rotation shaft , and an auxiliary protrusion (Ps), which protrudes in the axial direction (b) of the rotation shaft from the end surface (Sa) by a smaller protrusion amount (L2) than the main protrusion (Pm), and the restriction member is fixed in contact with the main protrusion (Pm) of the rotation shaft thereby restricting movement of the rotation shaft in the axial direction (b) in cooperation with the restriction member and the support .
A pharmaceutical composition comprising an IL-13Rα2 peptide; an EphA2 peptide; and only a single survivin peptide comprising the amino sequence of SEQ ID NO:9; and a Tetanus toxoid epitope, wherein said composition is emulsified by Montanide ISA-51, for use in a method of treating, preventing, or managing brain cancer in a human subject in need thereof, wherein the pharmaceutical composition is administered to the human subject subcutaneously, wherein the pharmaceutical composition is co-administered with bevacizumab, and wherein said human subject has received at least one prior treatment that failed, wherein the prior treatment comprises temozolomide, radiation therapy, and/or surgery.
A computer implemented method of operating a tillage implement , comprising: providing a map of a field; defining a plurality of boundaries in the map; propelling the tillage implement through the field; and adjusting at least one operating parameter of the tillage implement when the tillage implement crosses a boundary of the plurality; characterized in that defining the boundaries in the map comprises defining the boundaries to separate areas based on elevation or soil characteristic. providing a map of a field; defining a plurality of boundaries in the map; propelling the tillage implement through the field; and adjusting at least one operating parameter of the tillage implement when the tillage implement crosses a boundary of the plurality; characterized in that defining the boundaries in the map comprises defining the boundaries to separate areas based on elevation or soil characteristic.
A system for screen correction, the system comprising: a screen having screen parameters, wherein the screen parameters include at least one of a dimension of the screen, a curvature of the screen, a topographical reference point, or whether the screen is a front or back projection screen; a memory storage unit for storing content provided by a content producer, wherein the content provided by the content producer is rendered to be displayed on the screen in accordance with model parameters which are the assumed parameters of the system based upon an ideal model of the screen; a correction engine in communication with the memory storage unit , the correction engine configured to receive actual screen parameters from an input device and process the content provided by a content producer accounting for differences between the model parameters and the actual screen parameters to generate screen content; and a first projector (55-1) in communication with the correction engine , the first projector (55-1) configured to receive a first portion of the screen content and to project the first portion of the screen content onto the screen . a screen having screen parameters, wherein the screen parameters include at least one of a dimension of the screen, a curvature of the screen, a topographical reference point, or whether the screen is a front or back projection screen; a memory storage unit for storing content provided by a content producer, wherein the content provided by the content producer is rendered to be displayed on the screen in accordance with model parameters which are the assumed parameters of the system based upon an ideal model of the screen; a correction engine in communication with the memory storage unit , the correction engine configured to receive actual screen parameters from an input device and process the content provided by a content producer accounting for differences between the model parameters and the actual screen parameters to generate screen content; and a first projector (55-1) in communication with the correction engine , the first projector (55-1) configured to receive a first portion of the screen content and to project the first portion of the screen content onto the screen .
A control apparatus for controlling a motion of a robot device , the robot device including a suction head configured to pick up a workpiece (W) using compressed air and a pressure sensor to detect pressure of the compressed air, the control apparatus comprising: a movement controller configured to cause the robot device to move the suction head to a predetermined position (P1) at which the workpiece (W) is fed; a suction controller configured to cause the robot device to attempt to pick up the workpiece (W) with the suction head at the predetermined position (P1); a determiner configured to determine whether the suction head has picked up the workpiece (W) in the attempt based on a detection result of the pressure of the compressed air from the pressure sensor ; a searcher configured to cause, in response to determination that the suction head has yet to pick up the workpiece (W), the robot device to rotationally move the suction head spirally in a horizontal direction while causing the suction head to perform a suction operation for the workpiece (W) using the compressed air; and an estimator configured to estimate a direction in which the workpiece (W) is located with respect to the predetermined position (P1) based on a change in the pressure of the compressed air detected by the pressure sensor during the rotational movement of the suction head , wherein in response to the determination that the suction head has yet to pick up the workpiece (W), the movement controller is configured to cause the robot device to further move the suction head in the estimated direction, and after the suction head is further moved in the estimated direction, the suction controller is configured to cause the robot device to reattempt to pick up the workpiece(W) with the suction head . a movement controller configured to cause the robot device to move the suction head to a predetermined position (P1) at which the workpiece (W) is fed; a suction controller configured to cause the robot device to attempt to pick up the workpiece (W) with the suction head at the predetermined position (P1); a determiner configured to determine whether the suction head has picked up the workpiece (W) in the attempt based on a detection result of the pressure of the compressed air from the pressure sensor ; an estimator configured to estimate a direction in which the workpiece (W) is located with respect to the predetermined position (P1) based on a change in the pressure of the compressed air detected by the pressure sensor during the rotational movement of the suction head , wherein in response to the determination that the suction head has yet to pick up the workpiece (W), the movement controller is configured to cause the robot device to further move the suction head in the estimated direction, and after the suction head is further moved in the estimated direction, the suction controller is configured to cause the robot device to reattempt to pick up the workpiece(W) with the suction head .
A transparent electrode comprising: a transparent substrate ; a graphene structure doped with a dopant; and a hydrophobic organic layer on a surface of the doped graphene structure such that the doped graphene structure is arranged in between the transparent substrate and the hydrophobic organic layer, wherein the hydrophobic organic layer comprises a hydrophobic organic material, characterised in that the dopant is at least one selected from ionic liquids, acids, inorganic materials and organic materials selected from dichlorodicyanoquinone (DDQ), potassium peroxymonopersulfate (2KHSO 5 ·KHSO 4 ·K 2 SO 4 ), dimyristoylphosphatidylinositol (DMPI), and trifluoromethanesulfonimide. a transparent substrate ; a graphene structure doped with a dopant; and a hydrophobic organic layer on a surface of the doped graphene structure such that the doped graphene structure is arranged in between the transparent substrate and the hydrophobic organic layer, wherein the hydrophobic organic layer comprises a hydrophobic organic material, characterised in that the dopant is at least one selected from ionic liquids, acids, inorganic materials and organic materials selected from dichlorodicyanoquinone (DDQ), potassium peroxymonopersulfate (2KHSO 5 ·KHSO 4 ·K 2 SO 4 ), dimyristoylphosphatidylinositol (DMPI), and trifluoromethanesulfonimide.