mhurhangee/ep-ind-claims huggingface dataset:
A wing flap control system for a wing comprising: a flap and a foreflap; at least two control plates (1002, 1004, 1008) having an opening sized to accommodate a drive shaft; a drive shaft comprising a sprocket and engaged to each of the openings in each of the plurality of plates; wherein the drive shaft is configured to move and penetrates at least one control plate; at least two idler sprockets (1054, 1056) between the control plates; a chain engaging the sprocket and idler sprockets; a support arm rotatively coupled to the chain by a chain shoe; at a first end of the support arm and to the foreflap on an opposite end of the support arm; wherein the chain shoe slides in a first slot formed on the surface of one of said control plates, a tilt arm; a link arm rotatively coupled to a center portion of the support arm and connected to the flap and foreflap by said tilt arm; wherein the drive shaft can rotate both clockwise and counterclockwise to drive the chain in both forward and reverse directions to extend and retract the foreflap and flap to increase or decrease the surface area of the wing. a flap and a foreflap; at least two control plates (1002, 1004, 1008) having an opening sized to accommodate a drive shaft; a drive shaft comprising a sprocket and engaged to each of the openings in each of the plurality of plates; wherein the drive shaft is configured to move and penetrates at least one control plate; at least two idler sprockets (1054, 1056) between the control plates; a chain engaging the sprocket and idler sprockets; a support arm rotatively coupled to the chain by a chain shoe; at a first end of the support arm and to the foreflap on an opposite end of the support arm; wherein the chain shoe slides in a first slot formed on the surface of one of said control plates, a tilt arm; a link arm rotatively coupled to a center portion of the support arm and connected to the flap and foreflap by said tilt arm; wherein the drive shaft can rotate both clockwise and counterclockwise to drive the chain in both forward and reverse directions to extend and retract the foreflap and flap to increase or decrease the surface area of the wing.
A distribution device of at least one fuel flow (F1, F2) for a fuel supply circuit of a combustion chamber of a turbomachine, in particular an aircraft, the device comprising a main body of revolution extending about a longitudinal axis, the main body comprising: - an internal conduit for the flow of a first fuel flow and extending through the main body along the axis, - a first annular portion configured to form an outlet passage for a second fuel flow, and comprising at least one passage orifice for the second fuel flow, - an external annular gorge in fluid communication with said at least one orifice of the first portion, and - a second annular portion configured to form an inlet passage for the first fuel flow through the internal conduit characterized in that the second portion comprises an annular collar extending radially about the axis. - an internal conduit for the flow of a first fuel flow and extending through the main body along the axis, - a first annular portion configured to form an outlet passage for a second fuel flow, and comprising at least one passage orifice for the second fuel flow, - an external annular gorge in fluid communication with said at least one orifice of the first portion, and - a second annular portion configured to form an inlet passage for the first fuel flow through the internal conduit
A radiofrequency guidewire comprising: a core wire configured to be coupled to a radiofrequency generator, the core wire comprising a proximal end and a distal end with respect to the radiofrequency generator; and a tip structure coupled to the core wire distal end, the tip structure comprising a semi-spherical base having its grounded configuration coupled to the distal end of the core wire and a tapered section extending from the opposing side of the rounded configuration of the base to a flat distal tip, wherein the tapered section has a reduced radius of curvature as it extends out from the base a first circumferential edge surface (22, 22) at a first intersection between the base and the tapered section, and a second circumferential edge surface (22) at a second intersection between the tapered section and the surface of the flat distal tip, wherein the first circumferential edge surface and the second circumferential edge surface are configured to generate a stronger electric field than in other areas of the tip structure during a delivery of radiofrequency energy to the tip structure, initiate plasma formation and constrain the plasma to the distal tip structure, characterized in that the ratio of the length of the base to a length of the tapered section is greater than 50%. a core wire configured to be coupled to a radiofrequency generator, the core wire comprising a proximal end and a distal end with respect to the radiofrequency generator; and a tip structure coupled to the core wire distal end, the tip structure comprising a semi-spherical base having its grounded configuration coupled to the distal end of the core wire and a tapered section extending from the opposing side of the rounded configuration of the base to a flat distal tip, wherein the tapered section has a reduced radius of curvature as it extends out from the base a first circumferential edge surface (22, 22) at a first intersection between the base and the tapered section, and a second circumferential edge surface (22) at a second intersection between the tapered section and the surface of the flat distal tip, wherein the first circumferential edge surface and the second circumferential edge surface are configured to generate a stronger electric field than in other areas of the tip structure during a delivery of radiofrequency energy to the tip structure, initiate plasma formation and constrain the plasma to the distal tip structure, characterized in that the ratio of the length of the base to a length of the tapered section is greater than 50%.
A remote CCTV module for a wireless monitoring system, comprising: a battery; a communications interface configured to transmit data to a server over a wireless telecommunications network; a sensor interface configured to receive sensor data from a sensor; a CCTV camera; and a controller configured to: control the communications interface to transmit the sensor data over the wireless telecommunications network at a first periodicity; process the sensor data to detect an event in an environment proximate to the remote CCTV module, and in response to detecting the event, control the communications interface to transmit the sensor data over the wireless telecommunications network at a second periodicity, wherein the second periodicity is higher than the first periodicity, wherein the remote CCTV module is configured to receive a notification from the server, the notification indicating an event detected by another remote CCTV module, and in response transmit the sensor data over the wireless telecommunications network at an increased periodicity. a battery; a communications interface configured to transmit data to a server over a wireless telecommunications network; a sensor interface configured to receive sensor data from a sensor; a CCTV camera; and a controller configured to: control the communications interface to transmit the sensor data over the wireless telecommunications network at a first periodicity; process the sensor data to detect an event in an environment proximate to the remote CCTV module, and in response to detecting the event, control the communications interface to transmit the sensor data over the wireless telecommunications network at a second periodicity, wherein the second periodicity is higher than the first periodicity, control the communications interface to transmit the sensor data over the wireless telecommunications network at a first periodicity; process the sensor data to detect an event in an environment proximate to the remote CCTV module, and in response to detecting the event, control the communications interface to transmit the sensor data over the wireless telecommunications network at a second periodicity, wherein the second periodicity is higher than the first periodicity,
A method of determining whether an event associated with a monitored computing device is associated with a security violation, the method comprising: receiving event data representing the event, the event data comprising command-line text comprising at least two command lines; extracting at least two terms from the command-line text; determining respective term representations of the at least two terms based at least in part on a trained representation mapping; and determining an indication of whether the event is associated with a security violation at least partly by operating a trained classification computational model, CM, based at least in part on the respective term representations, wherein: the event is associated with a process that has an ancestor process; and the at least two command lines comprises a first command line associated with the process and a second command line associated with the ancestor process of the process. receiving event data representing the event, the event data comprising command-line text comprising at least two command lines; extracting at least two terms from the command-line text; determining respective term representations of the at least two terms based at least in part on a trained representation mapping; and determining an indication of whether the event is associated with a security violation at least partly by operating a trained classification computational model, CM, based at least in part on the respective term representations, the event is associated with a process that has an ancestor process; and the at least two command lines comprises a first command line associated with the process and a second command line associated with the ancestor process of the process.
Single- or multi-colored shaped body, blank or dental shaped part made of colored oxide ceramic powder, wherein Pr 2 O 3 and Fe 2 O 3 and Tb 2 O 3 and optionally further oxides are used as coloring oxides and the colored oxide ceramic powder has a proportion of oxide ceramic component to coloring oxides of 100: 0.0001 to 2.0 parts by weight.
A thermoplastic elastomer composition comprising: a (meth)acrylic elastomer (component A) which is a block copolymer comprising two or more blocks constituting a hard segment, and one or more blocks constituting a soft segment, a thermoplastic resin having a melting point of from 180° to 350°C, and having a functional group reactive with an epoxy group (component B), and a vinyl copolymer having a solubility in tetrahydrofuran and having two or more epoxy groups in one molecule, on average (component C), wherein proportions of each of said components are: 40 to 95 parts by weight of the (meth)acrylic elastomer (component A), 5 to 60 parts by weight of the thermoplastic resin (component B), and 0.1 to 30 parts by weight of the vinyl copolymer (component C), a total of the (meth)acrylic elastomer (component A) and the thermoplastic resin (component B) being 100 parts by weight, wherein the component C is constituted by monomer units containing 50% by weight or more of monomer units (monomer unit c1) of which SP value, as defined in the specification, is from 17.5 to 25.0, and wherein a flow beginning temperature is from 180° to 350°C as defined in the specification. a (meth)acrylic elastomer (component A) which is a block copolymer comprising two or more blocks constituting a hard segment, and one or more blocks constituting a soft segment, a thermoplastic resin having a melting point of from 180° to 350°C, and having a functional group reactive with an epoxy group (component B), and a vinyl copolymer having a solubility in tetrahydrofuran and having two or more epoxy groups in one molecule, on average (component C), wherein proportions of each of said components are: 40 to 95 parts by weight of the (meth)acrylic elastomer (component A), 5 to 60 parts by weight of the thermoplastic resin (component B), and 0.1 to 30 parts by weight of the vinyl copolymer (component C), a total of the (meth)acrylic elastomer (component A) and the thermoplastic resin (component B) being 100 parts by weight, wherein the component C is constituted by monomer units containing 50% by weight or more of monomer units (monomer unit c1) of which SP value, as defined in the specification, is from 17.5 to 25.0, and wherein a flow beginning temperature is from 180° to 350°C as defined in the specification.
Method for machining workpieces, in particular by means of a panel dividing system, in which, in a first method step, a workpiece is automatically divided into a first partial workpiece and at least a second partial workpiece, and in which, in a second method step, the second partial workpiece is machined, characterized in that in the second method step, the first partial workpiece produced in the first method step is still held by a positioning device and, for the machining of the second partial workpiece, is automatically positioned as a stop for the positioning of the second partial workpiece relative to a machining device, and the second partial workpiece is placed against the first partial workpiece. in the second method step, the first partial workpiece produced in the first method step is still held by a positioning device and, for the machining of the second partial workpiece, is automatically positioned as a stop for the positioning of the second partial workpiece relative to a machining device, and the second partial workpiece is placed against the first partial workpiece.
A delivery device for delivering a stented prosthesis to a native heart valve; the delivery device comprising: a handle assembly (18, 118, 188') including an actuator; an inner shaft assembly interconnected to the handle assembly and configured to releasably retain the stented prosthesis to the delivery device with at least one tension member (20, 120, 220a, 220b), wherein tension in the tension member can be adjusted with the actuator; and a tension management device (150, 250, 350); wherein the tension management device is configured to limit the amount of tension that can be applied by the actuator to the at least one tension member (20, 120, 220a, 220b), wherein a limit in the amount of tension that can be applied to the at least one tension member (20, 120, 220a, 220b) is adjustable. a handle assembly (18, 118, 188') including an actuator; an inner shaft assembly interconnected to the handle assembly and configured to releasably retain the stented prosthesis to the delivery device with at least one tension member (20, 120, 220a, 220b), wherein tension in the tension member can be adjusted with the actuator; and a tension management device (150, 250, 350); wherein the tension management device is configured to limit the amount of tension that can be applied by the actuator to the at least one tension member (20, 120, 220a, 220b), wherein a limit in the amount of tension that can be applied to the at least one tension member (20, 120, 220a, 220b) is adjustable.
A vacuum blender comprising: a mechanical operator comprising a main body provided with an internal space, a vacuum pump and a rotary motor, the vacuum pump and the rotary motor being installed in the internal space of the main body; a supporter configured to allow a vacuum tube connected with the vacuum pump to pass therethrough, the supporter being formed to rise to a certain height from the mechanical operator; a vacuum depressurizer arranged at an upper portion of the supporter and provided therein with a first vacuum chamber connected with the vacuum tube, the first vacuum chamber being configured such that upper and lower portions thereof communicate with an outside, and the upper portion of the first vacuum chamber is a selectively opened and closed by a first vacuum plug; and a vacuum chopper comprising a storage container seated on the mechanical operator and provided with a second vacuum chamber formed therein and a blender blade mounted thereto and connected with the rotary motor, and a seal cover sealably placed on the storage container, wherein a depressurizer packing is mounted to a lower portion of the vacuum depressurizer communicating with the outside so as to closely contact the seal cover, said seal cover being provided with a second vacuum plug installed at a portion of the seal cover sealably connected with said depressurizer packing mounted to the lower portion of the first vacuum chamber of the vacuum depressurizer, such that the second vacuum plug is selectively opened and closed. a mechanical operator comprising a main body provided with an internal space, a vacuum pump and a rotary motor, the vacuum pump and the rotary motor being installed in the internal space of the main body; a supporter configured to allow a vacuum tube connected with the vacuum pump to pass therethrough, the supporter being formed to rise to a certain height from the mechanical operator; a vacuum depressurizer arranged at an upper portion of the supporter and provided therein with a first vacuum chamber connected with the vacuum tube, the first vacuum chamber being configured such that upper and lower portions thereof communicate with an outside, and the upper portion of the first vacuum chamber is a selectively opened and closed by a first vacuum plug; and a vacuum chopper comprising a storage container seated on the mechanical operator and provided with a second vacuum chamber formed therein and a blender blade mounted thereto and connected with the rotary motor, and a seal cover sealably placed on the storage container, wherein a depressurizer packing is mounted to a lower portion of the vacuum depressurizer communicating with the outside so as to closely contact the seal cover, said seal cover being provided with a second vacuum plug installed at a portion of the seal cover sealably connected with said depressurizer packing mounted to the lower portion of the first vacuum chamber of the vacuum depressurizer, such that the second vacuum plug is selectively opened and closed.
A system comprising: a plurality of reference navigation systems (102-1...102-N), each reference navigation system configured for attachment to a vehicle or person, and each reference navigation system configured to generate a respective reference navigation solution that represents a position, a movement, or the position and the movement, of the vehicle or person; a test navigation system configured for attachment to the vehicle or person, and configured to generate a test navigation solution that represents the position, the movement, or the position and the movement, of the vehicle or person; and a processing unit configured to compare the test navigation solution to each of the respective reference navigation solutions and, based on the comparison of the test navigation solution to each of the respective reference navigation solutions, to estimate one or more errors in the differences between the test navigation solution and the respective reference navigation solutions; characterized in that the processing unit is further configured to update the respective reference navigation solutions to account for the corresponding one or more estimated errors; wherein the processing unit is configured to compare the test navigation solution to the updated reference navigation solutions, and to generate, based on the comparison of the test navigation solution to the updated reference navigation solutions, a performance score representative of the performance of the test navigation system. a plurality of reference navigation systems (102-1...102-N), each reference navigation system configured for attachment to a vehicle or person, and each reference navigation system configured to generate a respective reference navigation solution that represents a position, a movement, or the position and the movement, of the vehicle or person; a test navigation system configured for attachment to the vehicle or person, and configured to generate a test navigation solution that represents the position, the movement, or the position and the movement, of the vehicle or person; and a processing unit configured to compare the test navigation solution to each of the respective reference navigation solutions and, based on the comparison of the test navigation solution to each of the respective reference navigation solutions, to estimate one or more errors in the differences between the test navigation solution and the respective reference navigation solutions; characterized in that the processing unit is further configured to update the respective reference navigation solutions to account for the corresponding one or more estimated errors; wherein the processing unit is configured to compare the test navigation solution to the updated reference navigation solutions, and to generate, based on the comparison of the test navigation solution to the updated reference navigation solutions, a performance score representative of the performance of the test navigation system.
A method for modifying the surface of powdery particles, said method comprising introducing the powdery particles into a reaction mixture comprising a silane component and a liquid alcoholic component, wherein the powdery particles have a d 50 particle size of from 0.5 μm to 500 μm, and wherein the liquid alcoholic component comprises an alcoholic reactive component with one or more polyfunctional alcohol compounds, and then chemically transforming the silane component and the alcoholic reactive component in the presence of the particles, wherein reaction products formed during the transformation are deposited on the surface of the particles, a primary particle preparation thus being formed, which is obtained in the form of a paste or powder, wherein the proportions by weight of the powdery particles, in relation to the weight of the particle preparation, are 48 to 98.5 % by weight, wherein the proportion by weight of the alcoholic reactive component, in relation to the weight of the particles, is 0.01 % by weight to 20 % by weight, and wherein the proportion by weight of the silane component, in relation to the weight of the particles, is 0.01 % by weight to 10 % by weight.
A process for preparing Fondaparinux sodium comprising: i) contacting the compound of formula A5 with the compound of formula BC8 to provide the compound of formula ABC1 in a mixture of toluene/MTBE; and ii) converting the compound of formula ABC1 to Fondaparinux of formula ABCDE5: i) contacting the compound of formula A5 with the compound of formula BC8 to provide the compound of formula ABC1 in a mixture of toluene/MTBE; and ii) converting the compound of formula ABC1 to Fondaparinux of formula ABCDE5:
Mixing apparatus assembly with air gap separation, comprising a first duct, having an inlet mouth and a diameter D, connected to an air gap valve downstream of which a venturi mixing device is connected, the air gap valve comprising a nozzle having an outlet spaced apart by a separation distance from a collecting duct, the first duct and the air gap valve forming a linear channel upstream of the outlet of the nozzle, going from the inlet mouth of the first duct to the outlet of the nozzle and having a length L, the assembly being characterised in that the length L being not shorter than D and not longer than 20D, i.e. D ≤ L ≤ 20 ⁢ D, and in that said linear channel is provided with a flow straightener.