mhurhangee/ep-ind-claims huggingface dataset:
A rubber tire-tread composition comprising a rubber component comprising 45% by mass or higher of one or more isoprene-based rubbers selected from the group consisting of natural rubbers and synthetic isoprene rubbers, and one or more C5/C9-based petroleum resins selected from the group consisting of aromatic-modified aliphatic petroleum resins and aliphatic-modified aromatic petroleum resins in an amount of 5 to 50 parts by mass, and a fatty acid metal salt in an amount of 0.5 to 10 parts by mass, both based on 100 parts by mass of the rubber component.
Method for the coordinated control of at least two appliances, wherein at least a first appliance, preferably a food processor, and a second appliance are provided, which differ with respect to a respective functionality, characterized in that a global level is provided, to which the devices transmit at least one item of request information and at least one item of response information, so that the functionalities of the devices are used in a complementary manner, wherein at least the following steps being carried out for this purpose: a) generating the request information at the first device, wherein the request information is generated in response to an available functionality and an operation of the first device, b) transfer the request information to the global level, c) receiving the request information by at least the second device, d) evaluating the request information at least at the second device, wherein the request information is compared with the functionality available at the second device, so that the response information is generated in dependence on this comparison, wherein based on the response information, an adjustment of the operation of the first device is performed. a) generating the request information at the first device, wherein the request information is generated in response to an available functionality and an operation of the first device, b) transfer the request information to the global level, c) receiving the request information by at least the second device, d) evaluating the request information at least at the second device, wherein the request information is compared with the functionality available at the second device, so that the response information is generated in dependence on this comparison, wherein based on the response information, an adjustment of the operation of the first device is performed.
A method for calibrating a real-time estimator using a calibration module, wherein the real-time estimator is intended for quality estimation for a cutting method using a laser cutting machine, comprising the following method steps: - detecting at least one sensor signal from at least one sensor; - detecting measurement signals of a cutting edge of a finished cut workpiece by means of a measuring device; - loading a quality estimation result (q') of the real-time estimator, wherein the quality estimation result (q') is determined on the basis of at least one sensor signal from the at least one sensor; - providing a quality measurement result (q) of the cutting edge of the workpiece, wherein the quality measurement result (q) is provided by the detected measurement signals; - comparing the loaded quality estimation result (q') with the provided quality measurement result (q), wherein a position identifier is assigned and/or stored for the detected sensor signals and for the detected measurement signals, via which the detected signals are clearly identifiable and are assigned to one another for the comparison step, and based on the result, only if deviations that are determined exceed a preconfigurable threshold value, the following method steps are executed: - calculating a calibration data set (k) for calibrating the real-time estimator, and - calibrating or readjusting the real-time estimator by using the calibration data set (k). - detecting at least one sensor signal from at least one sensor; - detecting measurement signals of a cutting edge of a finished cut workpiece by means of a measuring device; - loading a quality estimation result (q') of the real-time estimator, wherein the quality estimation result (q') is determined on the basis of at least one sensor signal from the at least one sensor; - providing a quality measurement result (q) of the cutting edge of the workpiece, wherein the quality measurement result (q) is provided by the detected measurement signals; - comparing the loaded quality estimation result (q') with the provided quality measurement result (q), wherein a position identifier is assigned and/or stored for the detected sensor signals and for the detected measurement signals, via which the detected signals are clearly identifiable and are assigned to one another for the comparison step, and based on the result, only if deviations that are determined exceed a preconfigurable threshold value, the following method steps are executed: - calculating a calibration data set (k) for calibrating the real-time estimator, and - calibrating or readjusting the real-time estimator by using the calibration data set (k). - calculating a calibration data set (k) for calibrating the real-time estimator, and - calibrating or readjusting the real-time estimator by using the calibration data set (k).
A trusted platform field upgrade system, comprising a trusted platform module that further comprises:: - a non-volatile memory having an ownership flag for indicating whether ownership of the trusted platform module has been established; and - a volatile memory having a first physical presence flag that comprises a bit stored in volatile memory indicating whether a physical presence was asserted during a pre-operating system boot sequence and is cleared after a pre-operating system boot; characterized in that it comprises a second physical presence flag that comprises a bit stored in the volatile memory asserting physical presence if the ownership flag has not been established, wherein the trusted platform module is configured so that the second physical presence flag is not cleared after the pre-operating system boot and wherein the trusted platform module is further configured to enable a field upgrade to the trusted platform module in an operating system environment based on assertion of the second physical presence flag. - a non-volatile memory having an ownership flag for indicating whether ownership of the trusted platform module has been established; and - a volatile memory having a first physical presence flag that comprises a bit stored in volatile memory indicating whether a physical presence was asserted during a pre-operating system boot sequence and is cleared after a pre-operating system boot;
An automatic toilet cleaning device being provided above a toilet body which includes a bowl and a water tank to supply water to the bowl, the said toilet comprising: a seat plate which is pivoted at an upper rim of the bowl; a toilet lid which is pivoted at and covered on the upper rim of the bowl to cover the seat plate; a toilet lid open-close unit which is connected to the toilet lid to control an open-close state of the toilet lid; a seat plate cleaning unit which is provided on the toiled lid and is provided with a water feed end to fetch a water source, an air port end to connect a pneumatic device and a cleaning head being connected to the water feed end and the air port end to encircle along an outline of the seat plate; and a control unit which is provided close to the bowl, activating the seat plate cleaning unit after the toilet lid has been closed, characterized in that when activated by the control unit the cleaning head is configured to move over the toilet seat plate sweeping a path encircling the toilet bowl to spray the seat plate followed by the cleaning head moving over the toilet seat plate sweeping the path encircling the seat plate thereby achieving an object of automatically cleaning and air drying the seat plate.
A piezoelectric touch device, comprising: a conductive support structure (5,51,52) comprising an inseparable section as a bridge both being separated by each other by a first opening; a piezoelectric element (9,20) configured to provide a touch sensing and a haptic feedback, wherein the piezoelectric element comprises a piezoelectric layer and a conductive disk; connection pads (7,11) configured to form an electrically connected circuit for the piezoelectric element, wherein the piezoelectric element is electrically connected to the connection pads, and wherein the bridge comprises one of the connection pads and the conductive support structure comprises another of the connection pads, and wherein the connection pads are configured to both a mechanical support to the piezoelectric element and to the electric connection for connecting electrically to the piezoelectric element; a second opening (13,42) next to the another connection pad allowing the piezoelectric element to bend freely, characterized by the conductive disk of the piezoelectric element being configured to slide with respect to the connection pads of the conductive support structure. a conductive support structure (5,51,52) comprising an inseparable section as a bridge both being separated by each other by a first opening; a piezoelectric element (9,20) configured to provide a touch sensing and a haptic feedback, wherein the piezoelectric element comprises a piezoelectric layer and a conductive disk; connection pads (7,11) configured to form an electrically connected circuit for the piezoelectric element, wherein the piezoelectric element is electrically connected to the connection pads, and wherein the bridge comprises one of the connection pads and the conductive support structure comprises another of the connection pads, and wherein the connection pads are configured to both a mechanical support to the piezoelectric element and to the electric connection for connecting electrically to the piezoelectric element; a second opening (13,42) next to the another connection pad allowing the piezoelectric element to bend freely, characterized by the conductive disk of the piezoelectric element being configured to slide with respect to the connection pads of the conductive support structure.
An active energy ray-curable resin composition for a three-dimensional molding support material which is dissolvable, dispersible or swellable in water, containing 1.0% to 30.0% by mass of an ionic monomer selected from a cationic monomer and an anionic monomer, 2.0 to 60.0% by mass of a non-ionic water-soluble monomer, 25.0 to 80.0% by mass of a non-polymerizable compound, and 0.1 to 5.0% by mass of a photopolymerization initiator, wherein the percentages by mass are with respect to the entire energy ray-curable composition.
A method for updating a reader device with access control information, comprising: receiving access control information at a server; storing the access control information in a database at the server; determining a reader device that is to receive the access control information based on an analysis of the access control information; selecting mobile devices from a plurality of mobile devices having access rights to the reader device to deliver the access control information to the reader device, wherein the selected mobile devices are the mobile devices from the plurality of mobile devices that interact with the reader device most frequently; and transmitting, to the selected mobile devices, viral data that includes data that do not pertain to a particular user but generally pertains to several users, wherein the viral data includes at least a portion of the access control information; transmitting the viral data to the reader device from one of the selected mobile devices; receiving a notification message at the server from the one of the selected mobile devices, wherein the notification message indicates the reader device was successfully updated; and transmitting a command from the server to all of the other selected mobile devices that did not update the reader device to delete the viral data. receiving access control information at a server; storing the access control information in a database at the server; determining a reader device that is to receive the access control information based on an analysis of the access control information; selecting mobile devices from a plurality of mobile devices having access rights to the reader device to deliver the access control information to the reader device, wherein the selected mobile devices are the mobile devices from the plurality of mobile devices that interact with the reader device most frequently; and transmitting, to the selected mobile devices, viral data that includes data that do not pertain to a particular user but generally pertains to several users, wherein the viral data includes at least a portion of the access control information; transmitting the viral data to the reader device from one of the selected mobile devices; receiving a notification message at the server from the one of the selected mobile devices, wherein the notification message indicates the reader device was successfully updated; and transmitting a command from the server to all of the other selected mobile devices that did not update the reader device to delete the viral data.
A method for operating an electrolysis system in which water is converted into oxygen and hydrogen in an electrolysis unit, wherein a fluid stream (c, d) that comprises water and gas is conveyed from an oxygen side of the electrolysis unit to a gas separator, wherein an ignition of an ignition device is actively generated in the fluid stream (c). wherein a fluid stream (c, d) that comprises water and gas is conveyed from an oxygen side of the electrolysis unit to a gas separator, wherein an ignition of an ignition device is actively generated in the fluid stream (c).
A method of producing a pre-bonded multilayer film for covering a bone defect site, wherein the film includes at least one substantially completely bioresorbable cover layer (4, 4a, 4b), wherein the at least one cover layer (4, 4a, 4b) is applied to a thermally deformable and substantially completely bioresorbable molding layer, wherein the at least one cover layer (4, 4a, 4b) is thermally and/or mechanically connected, preferably pressed, to the molding layer, characterised in that - arranged on the molding layer are spike-like projections, wherein by applying the at least one cover layer (4, 4a, 4b) to the molding layer the projections are pressed into the at least one cover layer (4, 4a, 4b) and/or passed through the at least one cover layer (4, 4a, 4b), and/or - prior to the thermal and/or mechanical connection being made substantially completely bioresorbable connecting devices, preferably rivets or pins, are passed through the molding layer and the at least one cover layer (4, 4a, 4b). - arranged on the molding layer are spike-like projections, wherein by applying the at least one cover layer (4, 4a, 4b) to the molding layer the projections are pressed into the at least one cover layer (4, 4a, 4b) and/or passed through the at least one cover layer (4, 4a, 4b), and/or - prior to the thermal and/or mechanical connection being made substantially completely bioresorbable connecting devices, preferably rivets or pins, are passed through the molding layer and the at least one cover layer (4, 4a, 4b).
Bypass and protection circuit for a solar cell assembly, comprising: an input (102, 104) for connecting the solar cell assembly; an output (106, 108); a bypass element connected in parallel to the output (106, 108); a separating element connected between the input (102, 104) and the output (106, 108) and configured to control the connection between the input (102, 104) and the output (106, 108), wherein the separating element is configured to control a connection between the input (102, 104) and the output (106, 108) in response to a control signal; and a controller connected to the separating element, wherein the controller is configured to create the control signal in dependence on whether the solar cell assembly associated with the circuit is completely or partially shaded, or whether the solar cell assembly associated with the circuit is to be switched on or off; and characterized in that the controller obtains the voltage necessary for supplying the controller from the solar cell assembly. an input (102, 104) for connecting the solar cell assembly; an output (106, 108); a bypass element connected in parallel to the output (106, 108); a separating element connected between the input (102, 104) and the output (106, 108) and configured to control the connection between the input (102, 104) and the output (106, 108), wherein the separating element is configured to control a connection between the input (102, 104) and the output (106, 108) in response to a control signal; and a controller connected to the separating element, wherein the controller is configured to create the control signal in dependence on whether the solar cell assembly associated with the circuit is completely or partially shaded, or whether the solar cell assembly associated with the circuit is to be switched on or off; and characterized in that the controller obtains the voltage necessary for supplying the controller from the solar cell assembly.
A laser scanner system comprising: a scanner laser to generate an optical scanning beam (OPT IMG); a spindle assembly (14, 100) comprising a spindle (16, 50) that extends along an axis and reflects the optical scanning beam (OPT IMG), wherein the spindle (16, 50) is arranged as a substantially cylindrical spindle having a substantially planar surface that extends along the axial length of the spindle (16, 50), the substantially planar surface being mirrored to correspond to a single facet to reflect the optical scanning beam (OPT IMG); a beam detector to receive the reflected optical scanning beam (OPT IMG) from the single facet and to indicate when to generate a latent image corresponding to an image based on the optical scanning beam (OPT IMG) for a given scan operation; and a scan controller to control the scanner laser such that the optical scanning beam (OPT IMG) is reflected from only the single facet of the spindle (16, 50) during the given scan operation. a scanner laser to generate an optical scanning beam (OPT IMG); a spindle assembly (14, 100) comprising a spindle (16, 50) that extends along an axis and reflects the optical scanning beam (OPT IMG), wherein the spindle (16, 50) is arranged as a substantially cylindrical spindle having a substantially planar surface that extends along the axial length of the spindle (16, 50), the substantially planar surface being mirrored to correspond to a single facet to reflect the optical scanning beam (OPT IMG); a beam detector to receive the reflected optical scanning beam (OPT IMG) from the single facet and to indicate when to generate a latent image corresponding to an image based on the optical scanning beam (OPT IMG) for a given scan operation; and a scan controller to control the scanner laser such that the optical scanning beam (OPT IMG) is reflected from only the single facet of the spindle (16, 50) during the given scan operation.
A ventilation system comprising a ventilating unit and an acoustic attenuator for reducing acoustic emissions from the ventilation unit, the ventilating unit comprising a housing and a plurality of ports, with each port comprising an aperture and a spigot surrounding and extending outwardly from the aperture, and the attenuator comprising: an attenuator housing having a plurality of first ports configured to receive the spigots of the ventilating unit and a plurality of second ports; an acoustic attenuating material provided within the attenuator housing having a plurality of channels formed therein defining fluid conduits interconnecting the first ports and second ports with the acoustic attenuating material being in direct fluid communication with the fluid flow through the conduits such that sound waves present within the fluid flow are directly absorbed by the sound attenuating material; and the attenuator further comprises barrier means arranged to fluidly isolate the conduits from each other to prevent air from any one of the conduits from passing into any one of the other conduits through the sound attenuating material characterised in that: the plurality of first ports of the attenuator and the spigots of the ventilating unit are configured and arranged such when the ventilating unit and the attenuator are connected the spigots of the ventilating unit are entirely received within the housing of the attenuator such that the acoustic emissions from the spigots are attenuated by the acoustic attenuating material of the attenuator. an attenuator housing having a plurality of first ports configured to receive the spigots of the ventilating unit and a plurality of second ports; an acoustic attenuating material provided within the attenuator housing having a plurality of channels formed therein defining fluid conduits interconnecting the first ports and second ports with the acoustic attenuating material being in direct fluid communication with the fluid flow through the conduits such that sound waves present within the fluid flow are directly absorbed by the sound attenuating material; and the attenuator further comprises barrier means arranged to fluidly isolate the conduits from each other to prevent air from any one of the conduits from passing into any one of the other conduits through the sound attenuating material characterised in that: the plurality of first ports of the attenuator and the spigots of the ventilating unit are configured and arranged such when the ventilating unit and the attenuator are connected the spigots of the ventilating unit are entirely received within the housing of the attenuator such that the acoustic emissions from the spigots are attenuated by the acoustic attenuating material of the attenuator.
A non-contact power receiving device comprising: a power receiving coil adapted to output electric power by receiving a high-frequency magnetic field from an induction heating apparatus used as a feeding apparatus; a load device adapted to be supplied with the electric power from the power receiving coil; characterised by a changeover portion adapted to open and close a connection between the power receiving coil and the load device; and a power-reception-side control portion adapted to control an opening/closing operation of the changeover portion; wherein the power-reception-side control portion is adapted to control the opening/closing operation of the changeover portion, in order to adjust the electric power supplied to the load device from the power receiving coil; and further characterised in that the power-reception-side control portion is adapted to set an opening time interval, during the opening/closing operation of the changeover portion, to be within a time interval during which the induction heating apparatus used as the feeding apparatus can be reactivated. a power receiving coil adapted to output electric power by receiving a high-frequency magnetic field from an induction heating apparatus used as a feeding apparatus; a load device adapted to be supplied with the electric power from the power receiving coil; characterised by a changeover portion adapted to open and close a connection between the power receiving coil and the load device; and a power-reception-side control portion adapted to control an opening/closing operation of the changeover portion; wherein the power-reception-side control portion is adapted to control the opening/closing operation of the changeover portion, in order to adjust the electric power supplied to the load device from the power receiving coil; and further characterised in that the power-reception-side control portion is adapted to set an opening time interval, during the opening/closing operation of the changeover portion, to be within a time interval during which the induction heating apparatus used as the feeding apparatus can be reactivated.