mhurhangee/ep-ind-claims huggingface dataset:
Digital content reading system comprising: - a computer network access device; - a digital content reading device able to communicate with the computer network access device via a connection interface, and adapted to execute at least one software application, and - a conditional access module capable of encrypting or decrypting digital streams, the conditional access module being associated with the digital content reading device via a common interface, and connected to the computer network access device, the system being characterised in that the conditional access module has a connection interface providing the connection thereof with the network access device, in that the digital application(s) of the reading device communicate with the conditional access module via the network access device, and in that said communication is carried out by means of server software hosted by the conditional access module or the access device. - a computer network access device; - a digital content reading device able to communicate with the computer network access device via a connection interface, and adapted to execute at least one software application, and - a conditional access module capable of encrypting or decrypting digital streams, the conditional access module being associated with the digital content reading device via a common interface, and connected to the computer network access device,
A copier/printer exterior part using a halogen-free flame-retardant resin composition comprising: 5 wt% to 50 wt% of unused polycarbonate; 20 wt% to 63 wt% of recycled polycarbonate; 5 wt% to 35 wt% of recycled polyethylene terephthalate; 0.2 wt% to 2 wt% of a styrene-acrylonitrile-glycidyl methacrylate terpolymer; 5 wt% to 15 wt% of a toughener; 10 wt% to 20 wt% of a flame retardant; 0.1 wt% to 0.8 wt% of a flame-retardant antidrip agent; 0.1 wt% to 1 wt% of an antioxidant; and 0.1 wt% to 2 wt% of a lubricant, wherein the styrene-acrylonitrile-glycidyl methacrylate terpolymer includes 1 wt% to 5 wt% of glycidyl methacrylate and 20 wt% to 33 wt% of acrylonitrile, the toughener is at least one of a core-shell structured acrylate system toughener, a core-shell structured acrylate-silicone rubber system toughener, a core-shell structured styrene system toughener, a long-chain type toughener, wherein the long-chain type toughener is an ethylene-methyl acrylate copolymer or an ethylene-butyl acrylate copolymer, and a reaction type terpolymer toughener, wherein the reaction type terpolymer toughener is an ethylene-methyl acrylate-glycidyl methacrylate copolymer or an ethylene-butyl acrylate-glycidyl methacrylate copolymer, and the halogen-free flame-retardant resin composition is obtained by: (i) obtaining materials of the halogen-free flame-retardant resin composition; (ii) of the materials, sufficiently mixing a recycled polyethylene terephthalate material and a styrene-acrylonitrile-glycidyl methacrylate terpolymer material in a mixer so as to make a first mixture, taking out the first mixture from the mixer, and placing the first mixture in a screw extruder to extrude the first mixture so as to produce a base grain; and (iii) sufficiently mixing the base grain and the remaining materials in the mixer so as to make a second mixture, taking out the second mixture from the mixer, and placing the second mixture in the screw extruder to extrude the second mixture so as to produce a final grain as the halogen-free flame-retardant resin composition. 5 wt% to 50 wt% of unused polycarbonate; 20 wt% to 63 wt% of recycled polycarbonate; 5 wt% to 35 wt% of recycled polyethylene terephthalate; 0.2 wt% to 2 wt% of a styrene-acrylonitrile-glycidyl methacrylate terpolymer; 5 wt% to 15 wt% of a toughener; 10 wt% to 20 wt% of a flame retardant; 0.1 wt% to 0.8 wt% of a flame-retardant antidrip agent; 0.1 wt% to 1 wt% of an antioxidant; and 0.1 wt% to 2 wt% of a lubricant,
A method, comprising: depositing a set of micro-objects onto a surface of a micro-assembler, wherein the micro-assembler comprises a two-dimensional array of force generating pixels; wherein the method further comprises manipulating the set of micro-objects individually on the surface of the micro-assembler using a set of control patterns simultaneously, wherein each control pattern of the set of control patterns indicates a force pattern, the force pattern being a spatially and temporally varying voltage pattern, on a portion of the two-dimensional array of force generating pixels, characterized in that manipulating the set of micro-objects on the surface of the micro-assembler comprises: controlling orientations of the set of micro-objects in three dimensions relative to the surface of the micro-assembler. depositing a set of micro-objects onto a surface of a micro-assembler, wherein the micro-assembler comprises a two-dimensional array of force generating pixels; wherein the method further comprises manipulating the set of micro-objects individually on the surface of the micro-assembler using a set of control patterns simultaneously, wherein each control pattern of the set of control patterns indicates a force pattern, the force pattern being a spatially and temporally varying voltage pattern, on a portion of the two-dimensional array of force generating pixels, characterized in that manipulating the set of micro-objects on the surface of the micro-assembler comprises: controlling orientations of the set of micro-objects in three dimensions relative to the surface of the micro-assembler.
A method of dynamically configuring an online session of a multi-user application that operates on a computer network, comprising: establishing communication connections between at least two computers (410,412,420,422) on the computer network, each of which is executing the multi-user application, to thereby establish an online session of the multi-user application, wherein the multi-user application is able to operate in various communication configuration types during the online session; designating one of the computers as a session master computer that is responsible for managing functionality associated with the multi-user application; detecting that the session master computer has exited the online session; designating a second computer as the session master computer so that the second computer is responsible for managing the functionality associated with the multi-user application; and determining, after the designation of the second computer as the session master, to change from a client-server communication configuration type to a peer-to-peer communication configuration type wherein the change in the communication configuration type by the multi-user application is based on resource requirements of the multi-user application, establishing communication connections between at least two computers (410,412,420,422) on the computer network, each of which is executing the multi-user application, to thereby establish an online session of the multi-user application, wherein the multi-user application is able to operate in various communication configuration types during the online session; designating one of the computers as a session master computer that is responsible for managing functionality associated with the multi-user application; detecting that the session master computer has exited the online session; designating a second computer as the session master computer so that the second computer is responsible for managing the functionality associated with the multi-user application; and determining, after the designation of the second computer as the session master, to change from a client-server communication configuration type to a peer-to-peer communication configuration type wherein the change in the communication configuration type by the multi-user application is based on resource requirements of the multi-user application,
A downhole operational tool for moving a tool part between a retracted position and a projected position in a well, comprising: - a tool body having an axial extension, - the tool part being movable perpendicularly to the axial extension between the retracted position and the projected position, - a projection actuator configured to project the tool part from the tool body by means of hydraulics, the projection actuator comprising an actuator housing and a projection piston configured to slide inside the actuator housing, the tool part being connected with the projection piston, and - a retraction actuator comprising a spring element configured to retract the tool part into the tool body, the retraction actuator being connected with the projection piston so that when the projection actuator projects the tool part, the spring element is compressed, characterised in that the spring element is arranged outside the actuator housing. - a tool body having an axial extension, - the tool part being movable perpendicularly to the axial extension between the retracted position and the projected position, - a projection actuator configured to project the tool part from the tool body by means of hydraulics, the projection actuator comprising an actuator housing and a projection piston configured to slide inside the actuator housing, the tool part being connected with the projection piston, and - a retraction actuator comprising a spring element configured to retract the tool part into the tool body, the retraction actuator being connected with the projection piston so that when the projection actuator projects the tool part, the spring element is compressed,
A self-tuning acoustic distance measurement circuit, comprising: a driving circuit which generates a driving signal having a measurement frequency used for an acoustic distance measurement operation, and is configured to selectively provide the driving signal to an acoustic transducer and to cease the driving signal during the distance measurement operation; a frequency determination circuit which, during the distance measurement operation, based on only one occurrence of the driving signal, determines a resonant frequency of a resonant signal produced by the acoustic transducer during a reverberation period that occurs immediately after the driving circuit ceases the driving signal, and wherein the frequency determination circuit further indicates the resonant frequency to the driving circuit during the distance measurement operation; and wherein the driving circuit, in response to determining the resonant frequency, adjusts the_measurement frequency to a frequency within a preselected bandwidth of the resonant frequency. a driving circuit which generates a driving signal having a measurement frequency used for an acoustic distance measurement operation, and is configured to selectively provide the driving signal to an acoustic transducer and to cease the driving signal during the distance measurement operation; a frequency determination circuit which, during the distance measurement operation, based on only one occurrence of the driving signal, determines a resonant frequency of a resonant signal produced by the acoustic transducer during a reverberation period that occurs immediately after the driving circuit ceases the driving signal, and wherein the frequency determination circuit further indicates the resonant frequency to the driving circuit during the distance measurement operation; and wherein the driving circuit, in response to determining the resonant frequency, adjusts the_measurement frequency to a frequency within a preselected bandwidth of the resonant frequency.
A computer-implemented method for calculating vertical trajectory values, the method comprising: obtaining aircraft performance data for a particular aircraft and atmospheric condition data associated with an air route; calculating a cost-efficient vertical trajectory for the air route, based on the aircraft performance data and the atmospheric condition data, wherein the cost-efficient vertical trajectory comprises a plurality of altitude values for minimizing cost for the particular aircraft during travel of the air route; obtaining an altitude consistency threshold comprising a time period for which the particular aircraft is configured to remain at a particular altitude; determining whether each of the plurality of cost-efficient altitudes complies with the altitude consistency threshold; and adjusting the cost-efficient vertical trajectory using the altitude consistency threshold, to create an optimized vertical trajectory for the air route, by: when one or more of the plurality of altitude values do not comply with the altitude consistency threshold, shifting the one or more of the plurality of altitude values to comply with the altitude consistency threshold; and when the plurality of altitude values do comply with the altitude consistency threshold, identifying transitions between each of the plurality of altitude values and removing a transition if an orientation of a closely following transition is opposite. obtaining aircraft performance data for a particular aircraft and atmospheric condition data associated with an air route; calculating a cost-efficient vertical trajectory for the air route, based on the aircraft performance data and the atmospheric condition data, wherein the cost-efficient vertical trajectory comprises a plurality of altitude values for minimizing cost for the particular aircraft during travel of the air route; obtaining an altitude consistency threshold comprising a time period for which the particular aircraft is configured to remain at a particular altitude; determining whether each of the plurality of cost-efficient altitudes complies with the altitude consistency threshold; and adjusting the cost-efficient vertical trajectory using the altitude consistency threshold, to create an optimized vertical trajectory for the air route, by: when one or more of the plurality of altitude values do not comply with the altitude consistency threshold, shifting the one or more of the plurality of altitude values to comply with the altitude consistency threshold; and when the plurality of altitude values do comply with the altitude consistency threshold, identifying transitions between each of the plurality of altitude values and removing a transition if an orientation of a closely following transition is opposite.
A retaining means for a heat exchanger plate, the retaining means having a longitudinal extension and a transversal extension (t) perpendicular to the longitudinal extension, the retaining means comprising a first gripping portion and a second gripping portion arranged parallelly at a transversal distance from each other, each of the first and second gripping portions (61; 62) comprising a respective longitudinally extending finger member (65; 66) configured to be engaged with a surface of a heat exchanger plate, each finger member (65; 66) being attached at one end to a respective first transversal portion or second transversal portion, characterised in that the transversal distance between the first and second transversal portions (63; 64) is shorter than the transversal distance between the longitudinally extending finger members (65; 66), whereby an open compartment is formed, the compartment being limited in the transversal direction (t) by the two longitudinally extending finger members (65; 66) and at least partly in the longitudinal direction by the first and second transversal portions (63; 64), the formed compartment being configured to retain an object, which has a larger transversal extension than the transversal distance between the first and second transversal portions (63, 64), within the compartment.
A user terminal for communicating with a radio base station using carrier aggregation, in which six or more cells can be configured, the user terminal comprising: a reception section configured to receive downlink signals; a transmission section configured to transmit Channel Quality Indicators, CQIs, periodically; and a control section configured to control transmission of the CQIs, characterized in that the transmission section is further configured to transmit multiple CQIs in one subframe, and the control section is further configured to determine transmission periodicity and timing of the multiple CQIs for each cell, based on higher layer signaling. a reception section configured to receive downlink signals; a transmission section configured to transmit Channel Quality Indicators, CQIs, periodically; and a control section configured to control transmission of the CQIs, characterized in that the transmission section is further configured to transmit multiple CQIs in one subframe, and the control section is further configured to determine transmission periodicity and timing of the multiple CQIs for each cell, based on higher layer signaling.
An arrangement of a securing ring on a support structure such as the bank edge or a floor, in particular for loading a transport vehicle, wherein the ring is retained on the support structure by its part opposite the part for attaching a securing means such as a strap or chain, the securing ring includes an attachment element in the shape of a U having branches whereof the free ends pass through holes formed in a part of the support structure and a connecting element connecting the two ends, the connecting element comprising a plate suitable for being placed on the branches, on the side of the ends having passed through the part of the support structure and including, for each end of the attachment element, a retaining indentation for retaining the plate on the ends, characterized in that locking means (31, 50, 72) are placed on said ends preventing separation of the attachment element and the plate, the plate being provided with said locking means (31, 50, 72) substantially immobilizing the plate on the ends, the locking means (31, 50, 72) being movable between a locked position on one of the ends and a position making it possible to assemble the connecting element on the ends.
Levelling system (10; 10') for a vehicle, in particular a rail vehicle, comprising at least one levelling cylinder and a levelling piston (16; 16'), wherein the levelling piston (16; 16') is at least partially provided in the levelling cylinder in a movable manner for setting the level of the rail vehicle, wherein the levelling system (10; 10') comprises at least one guiding element, which is arranged within the levelling piston (16; 16') and partially protrudes from the levelling piston (16; 16') into at least one recess of the levelling cylinder such that an end stop in a longitudinal direction is provided for the relative movement between the levelling piston (16; 16') and the levelling cylinder, characterized in that the at least one recess of the levelling cylinder is formed as a groove extending on an inner diameter of the levelling cylinder and along a part of the longitudinal extension of the levelling cylinder, wherein the levelling piston (16; 16') comprises a central hole (16a.1; 16'a.1) which is formed such that the at least one guiding element is able to be passed through. wherein the levelling piston (16; 16') is at least partially provided in the levelling cylinder in a movable manner for setting the level of the rail vehicle, wherein the levelling system (10; 10') comprises at least one guiding element, which is arranged within the levelling piston (16; 16') and partially protrudes from the levelling piston (16; 16') into at least one recess of the levelling cylinder such that an end stop in a longitudinal direction is provided for the relative movement between the levelling piston (16; 16') and the levelling cylinder, characterized in that the at least one recess of the levelling cylinder is formed as a groove extending on an inner diameter of the levelling cylinder and along a part of the longitudinal extension of the levelling cylinder, wherein the levelling piston (16; 16') comprises a central hole (16a.1; 16'a.1) which is formed such that the at least one guiding element is able to be passed through.
A fuse for connection to a protective component of an overvoltage protective device, • wherein the fuse comprises a housing, a first cap, a second cap, and a fuse wire, which runs within the housing between the first cap and the second cap, • wherein the first cap is designed for thermal and electrical connection to the protective component, • wherein the fuse wire is secured to a connection electrode opposite the first cap, • wherein the fuse wire is designed such that it melts when acted on with a high I2t, • wherein a soldered connection is designed such that the soldered connection, in the event of external heating by the overvoltage protective device above a specified temperature, melts due to the thermal connection, characterised in that • the fuse wire is held on the first cap by means of the soldered connection, • the connection electrode is held in a guide movably relative to the body of the fuse and is subject to a pretension relative to the body of the fuse, and, • due to the mechanical pretension, the electric contact between the first cap and the connection electrode is cancelled if the fuse wire and also the soldered connection melt. • wherein the fuse comprises a housing, a first cap, a second cap, and a fuse wire, which runs within the housing between the first cap and the second cap, • wherein the first cap is designed for thermal and electrical connection to the protective component, • wherein the fuse wire is secured to a connection electrode opposite the first cap, • wherein the fuse wire is designed such that it melts when acted on with a high I2t, • wherein a soldered connection is designed such that the soldered connection, in the event of external heating by the overvoltage protective device above a specified temperature, melts due to the thermal connection, • the fuse wire is held on the first cap by means of the soldered connection, • the connection electrode is held in a guide movably relative to the body of the fuse and is subject to a pretension relative to the body of the fuse, and, • due to the mechanical pretension, the electric contact between the first cap and the connection electrode is cancelled if the fuse wire and also the soldered connection melt.