mhurhangee/ep-ind-claims huggingface dataset:
An apparatus comprising at least one processor and at least one memory storing computer program code, wherein the stored computer program code is configured to, with the at least one processor, cause the apparatus to at least: cause display of a first item on a touch sensitive display; receive an indication of a detected touch input, provided on the touch sensitive display, at the first item; select the first item in response to the touch input; receive an indication of a detected acceleration of the apparatus, the detected acceleration occurring while the touch input is maintained; and perform a function on the selected first item, in response to the acceleration of the apparatus occurring while the touch input is maintained. cause display of a first item on a touch sensitive display; receive an indication of a detected touch input, provided on the touch sensitive display, at the first item; select the first item in response to the touch input; receive an indication of a detected acceleration of the apparatus, the detected acceleration occurring while the touch input is maintained; and perform a function on the selected first item, in response to the acceleration of the apparatus occurring while the touch input is maintained.
A cell housing for a galvanic element, wherein the cell housing has a composite film with an insulating layer and an electrically conductive layer, wherein an end section of the composite film has a curve which is suitable for forming an insulation for the electrically conductive layer, characterised in that the inside of the end section, after the curve of the insulating layer, is adjacent to an outside of the cell housing and the inside is bonded with the outside of the cell housing.
A method for performing rate matching in a wireless communication environment, characterised in comprising: populating each circular buffer in an array of circular buffers with bits from an associated code block from a set of code blocks constituting a transport block; charcterized by obtaining a transmission budget defining an aggregate number of bits to be transmitted from all circular buffers in the array; and computing a respective buffer budget defining a number of the bits to transmit from an associated circular buffer for each circular buffer in the array, the respective buffer budget accounts for a fraction of the transmission budget and is proportional to the size of the associated circular buffer. populating each circular buffer in an array of circular buffers with bits from an associated code block from a set of code blocks constituting a transport block; charcterized by obtaining a transmission budget defining an aggregate number of bits to be transmitted from all circular buffers in the array; and computing a respective buffer budget defining a number of the bits to transmit from an associated circular buffer for each circular buffer in the array, the respective buffer budget accounts for a fraction of the transmission budget and is proportional to the size of the associated circular buffer.
A process to produce a catalyst composition, the process comprising: (i) contacting an activator-support and a solid metallocene compound for a first period of time to form a precontacted mixture; and (ii) contacting the precontacted mixture with an organoaluminum compound for a second period of time to produce the catalyst composition, wherein the activator-support comprises fluorided silica-coated alumina. (i) contacting an activator-support and a solid metallocene compound for a first period of time to form a precontacted mixture; and (ii) contacting the precontacted mixture with an organoaluminum compound for a second period of time to produce the catalyst composition, wherein the activator-support comprises fluorided silica-coated alumina.
A cable-type secondary battery having a horizontal cross section of a predetermined shape and extending longitudinally, comprising: a power supply consisting of an electrode assembly comprising an inner electrode having an inner current collector and an inner electrode active material layer surrounding the outer surface of the inner current collector; a separation layer surrounding the outer surface of the inner electrode to prevent a short circuit between electrodes; and an outer electrode active material layer surrounding the outer surface of the separation layer and an outer current collector surrounding the outer surface of the outer electrode active material layer, a signal transmitter arranged parallel to the electrode assembly and comprising a core for transmitting a signal, made of a wire; and a protection coating simultaneously surrounding the power supply and the signal transmitter, characterized by a shield surrounding the core of the signal transmitter to prevent electromagnetic interference, wherein the shield for preventing electromagnetic interference consists of a non-conductor shield for preventing electromagnetic interference, and a conductor shield for preventing electromagnetic interference, formed on the top of the non-conductor shield for preventing electromagnetic interference, wherein the non-conductor shield for preventing electromagnetic interference is made of a flexible polymer, and the conductor shield for preventing electromagnetic interference is formed with a carbon paste. a power supply consisting of an electrode assembly comprising an inner electrode having an inner current collector and an inner electrode active material layer surrounding the outer surface of the inner current collector; a separation layer surrounding the outer surface of the inner electrode to prevent a short circuit between electrodes; and an outer electrode active material layer surrounding the outer surface of the separation layer and an outer current collector surrounding the outer surface of the outer electrode active material layer, a signal transmitter arranged parallel to the electrode assembly and comprising a core for transmitting a signal, made of a wire; and a protection coating simultaneously surrounding the power supply and the signal transmitter, characterized by a shield surrounding the core of the signal transmitter to prevent electromagnetic interference, wherein the shield for preventing electromagnetic interference consists of a non-conductor shield for preventing electromagnetic interference, and a conductor shield for preventing electromagnetic interference, formed on the top of the non-conductor shield for preventing electromagnetic interference, wherein the non-conductor shield for preventing electromagnetic interference is made of a flexible polymer, and the conductor shield for preventing electromagnetic interference is formed with a carbon paste.
A method for determining a bodily characteristic, comprising: collecting sets of reflected backscatter data for a sequence of ultra-wideband pulses transmitted via an UWB sensor comprising an array of transmit and receive antenna pairs positioned on a body of a user, and a corresponding calibration measurement from a calibration channel in the UWB sensor; determining reflection coefficients for each tissue interface based on the sets of reflected backscatter data, the reflection coefficients determined from reflection profiles based upon the reflected backscatter data for that sequence of UWB pulses and the corresponding calibration measurement, the reflection profile associated with a model of tissue layers in the body between the UWB sensor and lung tissue; and determining a fluid level content of the lung tissue based upon the reflection coefficients, wherein the sets of reflected backscatter data comprise reflected backscatter data obtained for each of the TX and RX antenna pairs in the UWB sensor that is combined to generate a wideband beamformed signal for each set of reflected backscatter data, and characterized in that the reflection profiles are determined based upon sparse deconvolution of the wideband beamformed signal of that set of reflected backscatter data using a compensated UWB pulse shape that is based upon the corresponding calibration measurement, wherein the compensated UWB pulse shape is compensated for temperature changes. collecting sets of reflected backscatter data for a sequence of ultra-wideband pulses transmitted via an UWB sensor comprising an array of transmit and receive antenna pairs positioned on a body of a user, and a corresponding calibration measurement from a calibration channel in the UWB sensor; determining reflection coefficients for each tissue interface based on the sets of reflected backscatter data, the reflection coefficients determined from reflection profiles based upon the reflected backscatter data for that sequence of UWB pulses and the corresponding calibration measurement, the reflection profile associated with a model of tissue layers in the body between the UWB sensor and lung tissue; and determining a fluid level content of the lung tissue based upon the reflection coefficients, wherein the sets of reflected backscatter data comprise reflected backscatter data obtained for each of the TX and RX antenna pairs in the UWB sensor that is combined to generate a wideband beamformed signal for each set of reflected backscatter data, and characterized in that the reflection profiles are determined based upon sparse deconvolution of the wideband beamformed signal of that set of reflected backscatter data using a compensated UWB pulse shape that is based upon the corresponding calibration measurement, wherein the compensated UWB pulse shape is compensated for temperature changes.
An aluminium alloy wire to be used as a conductor, containing in mass%: Mg at 0.2% to 1.5%; Si at 0.1 % to 2.0%; Fe at 0.1% to 1.0% or at least one element selected from Cu, Cr, Mn and Zr, and Fe at a total of 0.1 % to 1.0%; Ti at 0.08% or less; B at 0.0005% to 0.016%; and the balance being Al and impurities, and having: an electrical conductivity of 40% IACS or more; a tensile strength of 150 MPa or more; an elongation of 5% or more; a wire diameter of 0.5 mm or less; and a maximum grain size of 50 μm or less. Mg at 0.2% to 1.5%; Si at 0.1 % to 2.0%; Fe at 0.1% to 1.0% or at least one element selected from Cu, Cr, Mn and Zr, and Fe at a total of 0.1 % to 1.0%; Ti at 0.08% or less; B at 0.0005% to 0.016%; and the balance being Al and impurities, and having: an electrical conductivity of 40% IACS or more; a tensile strength of 150 MPa or more; an elongation of 5% or more; a wire diameter of 0.5 mm or less; and a maximum grain size of 50 μm or less. an electrical conductivity of 40% IACS or more; a tensile strength of 150 MPa or more; an elongation of 5% or more; a wire diameter of 0.5 mm or less; and a maximum grain size of 50 μm or less.
Staircase Elevator Device for ascending/descending any given number of steps of a staircase comprising an equal to the staircase steps number of modular step elevators, each individual modular step elevator being associated with one step of the staircase, each modular step elevator comprising a base firmly arranged on the horizontal surface of the staircase step the modular step elevator is associated with and shaped according to the shape of the horizontal surface of the staircase step and a movable platform having the same shape as the base and beeing able to be moved up or down between the base of the modular step elevator and the level of the lower position of the movable platform of the modular step elevator associated with the next higher staircase step by means of an electric, pneumatic or hydraulic actuator, the movable platform having at least one handhold beeing arranged on one side of the movable platform essentialy verticaly to the riser and to the movable platform, whereby the electric, pneumatic or hydraulic actuator is controllable by a user by means of control means provided on at least one handhold of the movable platform, whereby the first step is an area of the floor level of the lower floor and the last step an area of the floor level of the higher floor, the last step beeing not associated with a modular step elevator, whereby the movable platform of the modular step elevator associated with the second last step is able to be moved up or down between the base and the level of the floor level of the higher floor, characterized in that each individual modular step elevator associated with one step of the staircase is connected with the step in a non-destructive way, in that the modular step elevators are firmly combined by one or two long metal profiles in a stable, united and all-integrated Device and in that the bases of the modular step elevators associated with one staircase between two floors are firmly connected to each other by means of at least one stable profile running along and parallel to the inclination of the staircase from the lower floor to the higher floor and serving also as a guide channel for the cables and/or tubing needed for the operation of the actuators of the movable platforms.
A heat welding apparatus for combining a plastic fuel tank and plastic parts, the apparatus joining a plastic part onto an inner surface of the plastic fuel tank by heat welding, the apparatus comprising: a cylinder having a cylinder rod moving rectilinearly; a gripper clamping and fixing the plastic part; and a melting unit configured to simultaneously heat a welding portion of the plastic fuel tank, to which the plastic part is joined, and a welding surface of the plastic part; and characterised in that the heat welding apparatus further comprises: a first rotary actuator coupled with the cylinder rod and having a first shaft being rotatable and a first rotary shaft coupled with the first shaft; and a second rotary actuator coupled with the first rotary actuator and having a second shaft being rotatable and a second rotary shaft coupled with the second shaft; wherein the gripper is coupled with the second rotary shaft; and wherein the melting unit is coupled with the first rotary shaft. a cylinder having a cylinder rod moving rectilinearly; a gripper clamping and fixing the plastic part; and a melting unit configured to simultaneously heat a welding portion of the plastic fuel tank, to which the plastic part is joined, and a welding surface of the plastic part; and characterised in that the heat welding apparatus further comprises: a first rotary actuator coupled with the cylinder rod and having a first shaft being rotatable and a first rotary shaft coupled with the first shaft; and a second rotary actuator coupled with the first rotary actuator and having a second shaft being rotatable and a second rotary shaft coupled with the second shaft; wherein the gripper is coupled with the second rotary shaft; and wherein the melting unit is coupled with the first rotary shaft. a first rotary actuator coupled with the cylinder rod and having a first shaft being rotatable and a first rotary shaft coupled with the first shaft; and a second rotary actuator coupled with the first rotary actuator and having a second shaft being rotatable and a second rotary shaft coupled with the second shaft; wherein the gripper is coupled with the second rotary shaft; and wherein the melting unit is coupled with the first rotary shaft.
An apparatus, comprising a control unit configured to interface at least one other apparatus, wherein the control unit is configured to receive a plurality of reports (S3a, S3b, S3c) from respective terminals (UE#1, UE#2, UE#3), each report being indicative of a detection of at least one discovery signal transmitted from at least one corresponding device configured to act as a proximity discovery agent (PDA#1, PDA#2) by the respective terminal, wherein each corresponding device configured to act as a proximity discovery agent (PDA#1, PDA#2) is identifiable by extended system information broadcast by the device configured to act as a proximity discovery agent, or an indication sent to each of the respective terminals (UE#1, UE#2, UE#3), analyze the plurality of reports in terms of which terminal reported a detection of which device is configured to act as a proximity discovery agent, determine that terminals, the reports of which are indicative of a same device configured to act as a proximity discovery agent, are in proximity to each other, and cause transmission of a corresponding proximity indication to each terminal for which a proximity to one or more other terminals was determined.
A safety module for a charging station for electric vehicles comprising, - a processor, - at least one sensor input, and - at least one switching output, wherein - the sensor input and the switching output have an operative connection with the processor, wherein - in the safety module for each sensor measured value a plurality of triggering curves and/or one triggering criteria are stored - the processor monitors at least one measured sensor value at the at least one sensor input independently of a charging process - the processor compares a sensor measured value with an appropriate triggering curve and/or a triggering criterion and when the measured sensor value at the sensor input exceeds a triggering criterion the processor outputs a switch-off signal at the switching output characterized in that - the processor reads a geographical position of the charging station from a position sensor provided within the charging station, and - the processor selects at least one of the plurality of stored triggering criteria and/or triggering curves as a function of a position of the safety module. - a processor, - at least one sensor input, and - at least one switching output, wherein - the sensor input and the switching output have an operative connection with the processor, wherein - in the safety module for each sensor measured value a plurality of triggering curves and/or one triggering criteria are stored - the processor monitors at least one measured sensor value at the at least one sensor input independently of a charging process - the processor compares a sensor measured value with an appropriate triggering curve and/or a triggering criterion and when the measured sensor value at the sensor input exceeds a triggering criterion the processor outputs a switch-off signal at the switching output characterized in that - the processor reads a geographical position of the charging station from a position sensor provided within the charging station, and - the processor selects at least one of the plurality of stored triggering criteria and/or triggering curves as a function of a position of the safety module.
A process for polymerizing or copolymerizing one or more ethylenically unsaturated monomers at temperatures from 100°C to 350°C and pressures in the range of from 110 MPa to 500 MPa in a production line comprising a continuously operated polymerization reactor which is installed within a protective enclosure, the process comprising - monitoring the production line with respect to an occurrence of a leakage of monomers or of reaction mixture, and - automatically starting a water based deluge system, which provides droplets of a diameter in a range from 25 μm to 20 mm to the enclosed area when a leakage of monomers or of reaction mixture is detected, and the droplets are provided with a minimum flow rate of 10 L/min per m 2 of enclosed area. - monitoring the production line with respect to an occurrence of a leakage of monomers or of reaction mixture, and - automatically starting a water based deluge system, which provides droplets of a diameter in a range from 25 μm to 20 mm to the enclosed area when a leakage of monomers or of reaction mixture is detected, and the droplets are provided with a minimum flow rate of 10 L/min per m 2 of enclosed area.
Apparatus for intermixing a mass such as a dispersion, comprising a large-volume container with a container wall, and a mixing unit arranged on the container, wherein the mixing unit comprises at least one linearly displaceable piston mounted in said container and has at least one mixing element, and said container comprises a bottom with a diameter, wherein the mixing element extends two-dimensionally around the piston for the purpose of intermixing the mass, wherein the mixing element has recesses and is arranged at a distance from the container wall, wherein the mixing element is of convex construction, characterized in that a diameter of the mixing element is equal to 10 % to 40 % of the bottom.
A flame retardant composition comprising 20 to 50 parts by mass of at least one melamine salt selected from the group consisting of melamine orthophosphate, melamine pyrophosphate, and melamine polyphosphate, 50 to 80 parts by mass of at least one piperazine salt selected from the group consisting of piperazine orthophosphate, piperazine pyrophosphate, and piperazine polyphosphate, the sum of the components and being 100 parts by mass, and 1 to 50 parts by mass of β-cyclodextrin.
A method for extracorporeal identification of the optimal direction and maximum diameter of a pedicle screw so that the screw will not come out of the pedicle in operations of pedicle arthrodesis, characterized in that it comprises the following steps: - choosing a point P of entry on the outer surface at the height of the pedicle, on a three-dimensional reconstruction by means of CT or NMR of a patient, generated by a computer; - generating, by means of a computer, a spherical cap with centre P and any radius; - generating, by means of a computer, the proper sheaf of straight lines passing through the centre P, which intersect the cap and are contained in the pedicle chosen for the perforation; - selecting, by means of a computer, all the points of the straight lines intersecting the spherical cap that will constitute a resulting surface; - calculating, by means of a computer, the centroid of the points of intersection of the straight lines with the cap that constitute the resulting surface; - selecting, by means of a computer, a straight line passing through the centroid of the resulting surface and the point P; - tracing, by means of a computer, the plane perpendicular to the straight line passing through the point P; - generating, by means of a computer, a prismatic solid limited by the tangency of the intra-pedicular section of passage, wherein said prismatic solid extends in parallel to the straight line; - selecting the base of the prismatic solid; and - identifying, by means of a computer, the minimum distance between the point P and the perimeter of said base, where said minimum distance represents the maximum radius that the pedicle screw can have. - choosing a point P of entry on the outer surface at the height of the pedicle, on a three-dimensional reconstruction by means of CT or NMR of a patient, generated by a computer; - generating, by means of a computer, a spherical cap with centre P and any radius; - generating, by means of a computer, the proper sheaf of straight lines passing through the centre P, which intersect the cap and are contained in the pedicle chosen for the perforation; - selecting, by means of a computer, all the points of the straight lines intersecting the spherical cap that will constitute a resulting surface; - calculating, by means of a computer, the centroid of the points of intersection of the straight lines with the cap that constitute the resulting surface; - selecting, by means of a computer, a straight line passing through the centroid of the resulting surface and the point P; - tracing, by means of a computer, the plane perpendicular to the straight line passing through the point P; - generating, by means of a computer, a prismatic solid limited by the tangency of the intra-pedicular section of passage, wherein said prismatic solid extends in parallel to the straight line; - selecting the base of the prismatic solid; and - identifying, by means of a computer, the minimum distance between the point P and the perimeter of said base, where said minimum distance represents the maximum radius that the pedicle screw can have.