mhurhangee/ep-ind-claims huggingface dataset:
An implantable electronic therapy device, comprising - a therapy unit, - a heart rate capturing unit, - a contractility determination unit, and - an evaluation and control unit, wherein the therapy unit is designed to deliver an antitachycardiac therapy, the heart rate capturing unit is designed to determine a ventricular heart rate from an input signal, the contractility determination unit is designed to generate, from an input signal, a contraction signal which reflects a contractility of a ventricle, and the evaluation and control unit is connected to the therapy unit, the heart rate capturing unit, and the contractility determination unit and designed to actuate the therapy unit to administer an antitachycardiac therapy when the heart rate capturing unit detects an increase in the heart rate above a specified threshold value and the contractility determination unit supplies a contraction signal which is not physiologically adequate for the increase in the heart rate. - a therapy unit, - a heart rate capturing unit, - a contractility determination unit, and - an evaluation and control unit,
A fastening member having an inboard end and an outboard end, the fastening member further comprising: a panel region disposed adjacent to the inboard end; an end region disposed adjacent to the outboard end, wherein the end region comprises a fastening element zone having a first stiffness and an intermediate zone having a second stiffness, wherein the intermediate zone is disposed between the fastening element zone and the panel region adjacent to an interface between the panel region and the end region; a fastening element disposed in the end region and defining the fastening element zone, wherein the panel region is more extensible than the end region, wherein the first stiffness is greater than the second stiffness; and wherein the panel region has a third stiffness wherein the second stiffness is greater than the third stiffness; and a base substrate, characterized in that the base substrate being folded such that a folded portion of the base substrate is disposed within the fastening element zone. a panel region disposed adjacent to the inboard end; an end region disposed adjacent to the outboard end, wherein the end region comprises a fastening element zone having a first stiffness and an intermediate zone having a second stiffness, wherein the intermediate zone is disposed between the fastening element zone and the panel region adjacent to an interface between the panel region and the end region; a fastening element disposed in the end region and defining the fastening element zone, wherein the panel region is more extensible than the end region, wherein the first stiffness is greater than the second stiffness; and wherein the panel region has a third stiffness wherein the second stiffness is greater than the third stiffness; and a base substrate, characterized in that the base substrate being folded such that a folded portion of the base substrate is disposed within the fastening element zone.
A copper alloy sheet having a thickness of 0.05 to 1.0 mm and a chemical composition consisting of 0.7 to 4.0 wt% of nickel, 0.2 to 1.5 wt% of silicon, optionally one or more elements which are selected from the group consisting of 0.1 to 1.2 wt% of tin, not higher than 2.0 wt% of zinc, not higher than 1.0 wt% of magnesium, not higher than 2.0 wt% of cobalt, and not higher than 1.0 wt% of iron, optionally one or more elements which are selected from the group consisting of chromium, boron, phosphorus, zirconium, titanium, manganese, silver, beryllium and misch metal, the total amount of these elements being not higher than 3 wt%, and the balance being copper and unavoidable impurities, wherein the copper alloy sheet has a crystal orientation which satisfies I / I 0 ≥ 1.0, assuming that the intensity of X-ray diffraction on the crystal plane on the surface of the copper alloy sheet is I and that the intensity of X-ray diffraction on the crystal plane of the standard powder of pure copper is I 0, wherein said crystal orientation of the copper alloy sheet satisfies I / I ≥ 15, assuming that the intensity of X-ray diffraction on the crystal plane on the surface of the copper alloy sheet is I, wherein the copper alloy sheet has a mean crystal grain size D which is in the range of from 6 μm to 60 μm, said mean crystal grain size D being obtained without including twin crystal boundaries while distinguishing crystal grain boundaries from the twin crystal boundaries on the surface of the copper alloy sheet by the method of section based on JIS H0501, and wherein the copper alloy sheet has a mean twin crystal density N G = (D-D T)/D T, which is not less than 0.5, said mean twin crystal density being derived from the mean crystal grain size D and a mean crystal grain size D T which is obtained while including twin crystal boundaries without distinguishing crystal grain boundaries from the twin crystal boundaries on the surface of the copper alloy sheet by the method of section based on JIS H0501. 0.7 to 4.0 wt% of nickel, 0.2 to 1.5 wt% of silicon, optionally one or more elements which are selected from the group consisting of 0.1 to 1.2 wt% of tin, not higher than 2.0 wt% of zinc, not higher than 1.0 wt% of magnesium, not higher than 2.0 wt% of cobalt, and not higher than 1.0 wt% of iron, optionally one or more elements which are selected from the group consisting of chromium, boron, phosphorus, zirconium, titanium, manganese, silver, beryllium and misch metal, the total amount of these elements being not higher than 3 wt%, and the balance being copper and unavoidable impurities,
A method of wireless communication performed by a network entity, comprising: determining an energy level for each of a plurality of physical random access channel, PRACH, frequency offsets; selecting a PRACH frequency offset from the plurality of PRACH frequency offsets, based at least on the determined energy level; determining a plurality of physical cell identifiers, PCIs, available for the selected PRACH frequency offset; and selecting a PCI from the plurality of PCIs available. determining an energy level for each of a plurality of physical random access channel, PRACH, frequency offsets; selecting a PRACH frequency offset from the plurality of PRACH frequency offsets, based at least on the determined energy level; determining a plurality of physical cell identifiers, PCIs, available for the selected PRACH frequency offset; and selecting a PCI from the plurality of PCIs available.
A multi-port energy storage system (138,160, 180), comprising: two or more energy storage devices having different time constants and different rates of energy delivery/energy recovery; a converter configured to step-up an alternating current 'AC' voltage level of each of the energy storage devices and create an AC output voltage that is galvanically isolated from an input source; a rectifier configured to rectify the AC output voltage to a direct current 'DC' voltage, the DC voltage having a voltage higher than the rms voltage of the AC output voltage; a control system having excitation systems and configured to transfer control from a low response mode to a high response mode to change at least one of the excitation systems from a first response field exciter to a second response field exciter, which is faster than the first response field exciter; and a limiter configured to limit electrical fault energy in the AC output voltage and a DC output voltage. two or more energy storage devices having different time constants and different rates of energy delivery/energy recovery; a converter configured to step-up an alternating current 'AC' voltage level of each of the energy storage devices and create an AC output voltage that is galvanically isolated from an input source; a rectifier configured to rectify the AC output voltage to a direct current 'DC' voltage, the DC voltage having a voltage higher than the rms voltage of the AC output voltage; a control system having excitation systems and configured to transfer control from a low response mode to a high response mode to change at least one of the excitation systems from a first response field exciter to a second response field exciter, which is faster than the first response field exciter; and a limiter configured to limit electrical fault energy in the AC output voltage and a DC output voltage.
Individual cell for a battery, comprising an electrode stack located in a housing formed from two cover plates (2, 3, 6, 7) and a frame, by means of which the two cover plates (2, 3, 6, 7) are electrically insulated against one another, wherein current arrester lugs of electrode foils of one polarity are connected to one another to form a pole contact (4.1, 4.2) and the respective pole contact (4.1, 4.2) is connected to a cover plate (2, 3, 6, 7) and each cover plate (2, 3, 6, 7) forms an electric pole of the individual cell, characterised in that the current arrester lugs of the first polarity are led out at a first pole side and the current arrester lugs of the second polarity are led out at a second pole side in the central region of the electrode stack and brought together in a central region with respect to the width of the respective pole side (P1, P2) and joined together to form the pole contact (4.1, 4.2), and in that the pole contacts (4.1, 4.2) are angled parallel to the pole side (P1, P2) and connected to a cover plate (2, 3, 6, 7).
A method for providing access to a socio-RBT, Ring Back Tone, service, wherein the socio-RBT service enables updating social networking website profile of a user with RBT related information of the user, the method comprising the steps (302, 304, 306, 308, 310) of: receiving socio-RBT subscription information from the user, wherein the socio-RBT subscription information comprises at least one unique identifier of the user; verifying one or more predetermined conditions related to the user, wherein the predetermined conditions facilitate to determine if the user is eligible to access the socio-RBT service; mapping the unique identifier of the user with a unique identifier of the user's social networking website profile; obtaining a RBT subscription information corresponding to the mapped unique identifier of the user; and updating RBT related information on the social networking website profile of the user corresponding to the RBT subscription information. receiving socio-RBT subscription information from the user, wherein the socio-RBT subscription information comprises at least one unique identifier of the user; verifying one or more predetermined conditions related to the user, wherein the predetermined conditions facilitate to determine if the user is eligible to access the socio-RBT service; mapping the unique identifier of the user with a unique identifier of the user's social networking website profile; obtaining a RBT subscription information corresponding to the mapped unique identifier of the user; and updating RBT related information on the social networking website profile of the user corresponding to the RBT subscription information.
An intermediate film for laminated glass, comprising: a first layer which contains a polyvinyl acetal resin and a plasticizer; a second layer which is laminated on a first surface of the first layer and which contains a polyvinyl acetal resin and a plasticizer; and a third layer which is laminated on a second surface that is opposite to the first surface of the first layer and which contains a polyvinyl acetal resin and a plasticizer, wherein a hydroxy group content in the polyvinyl acetal resin contained in the first layer is lower than each of hydroxy group contents in the polyvinyl acetal resins contained in the second layer and the third layer by 7 mol% or higher, the hydroxy group content in the polyvinyl acetal resin contained in the first layer is lower than 25 mol%, a ratio of a thickness of the first layer to the total thickness of the second layer and the third layer is 0.13 or lower, and the thickness of the first layer is 40 μm or higher. a first layer which contains a polyvinyl acetal resin and a plasticizer; a second layer which is laminated on a first surface of the first layer and which contains a polyvinyl acetal resin and a plasticizer; and a third layer which is laminated on a second surface that is opposite to the first surface of the first layer and which contains a polyvinyl acetal resin and a plasticizer, wherein a hydroxy group content in the polyvinyl acetal resin contained in the first layer is lower than each of hydroxy group contents in the polyvinyl acetal resins contained in the second layer and the third layer by 7 mol% or higher, the hydroxy group content in the polyvinyl acetal resin contained in the first layer is lower than 25 mol%, a ratio of a thickness of the first layer to the total thickness of the second layer and the third layer is 0.13 or lower, and the thickness of the first layer is 40 μm or higher.
A sonication device comprising: a sonication plate receiving and holding a sample container; said sonication plate including a first energy coupling structure; said sample container containing a second energy coupling structure complementary to said first energy coupling structure such that when the sample container is mated to the sampling plate, maximal energy transfer occurs from said sonication plate into said sample container, characterized in that the sample container (test tube) is provided with an attachment feature and the sonication plate is provided with attachment holes possessing a feature matching the attachment feature of the container, in that the location of the maximum energy transfer is determined by the standing wave and in that the sample container matches the impedance of the plate to provide optimal acoustic energy coupling.
A method for managing message queues (34, 74) used for transferring messages from a first system executing a first software application of an enterprise information technology system to a second system executing a second software application of the enterprise information technology system, wherein the first system includes a number of message queues and the second system includes a number of message queues, and wherein each message queue (34, 74) is used only for one object type and each separate message queue (34, 74) is used for each different object type, the method comprising: in case of a problem occurring in the transfer of messages from the first system to the second system, receiving from a user an indication of an object type; identifying a message queue (34, 74) used for the particular type of object or for the object type by a queue registration manager; and performing a registration-related action on the identified message queue (34, 74); wherein performing a registration related action comprises causing de-registration of the identified message queue (34, 74) such that processing of messages from the identified message queue (34, 74) is ceased to enable solving the problem with transferring enterprise application data having the object type to the second application; and when the user has completed the problem analysis, receiving from the user an indication of an object type; identifying a message queue (34, 74) used for the particular type of object or for the object type by the queue registration manager; and performing a registration-related action on the identified message queue (34, 74); wherein performing a registration-related action comprises causing registration of the identified message queue (34, 74) such that processing of messages from the identified message queue (34, 74) is started after the data transfer problem is solved. in case of a problem occurring in the transfer of messages from the first system to the second system, receiving from a user an indication of an object type; identifying a message queue (34, 74) used for the particular type of object or for the object type by a queue registration manager; and performing a registration-related action on the identified message queue (34, 74); wherein performing a registration related action comprises causing de-registration of the identified message queue (34, 74) such that processing of messages from the identified message queue (34, 74) is ceased to enable solving the problem with transferring enterprise application data having the object type to the second application; and when the user has completed the problem analysis, receiving from the user an indication of an object type; identifying a message queue (34, 74) used for the particular type of object or for the object type by the queue registration manager; and performing a registration-related action on the identified message queue (34, 74); wherein performing a registration-related action comprises causing registration of the identified message queue (34, 74) such that processing of messages from the identified message queue (34, 74) is started after the data transfer problem is solved.
Method for operating a mini/micro combined heat and power station for a single-family dwelling, in which an internal combustion engine provides a torque for driving an asynchronous machine which is used as a generator and which supplies a three-phase current having the phases R, S and T for drawing electrical power for the purpose of generating thermal and electrical energy for the consumers in the dwelling, and generates an exhaust gas stream, the waste heat of which is fed via a heat exchanger to a heat accumulator for generating thermal energy for the service water and heating circuit and hot water of the dwelling, a battery bank for providing electrical power to electric consumers and a rectifier/inverter unit for charging the battery bank by rectifying at least part of the alternating current supplied by the generator and for converting the direct current into alternating current for electric consumers in the dwelling, the internal combustion engine, the generator, the heat accumulator, the battery bank and the rectifier/inverter unit being controlled by a central logic, characterized in that the electrical power of the generator to be provided on the phases R, S and T is redistributed as a function of the currently applied consumption load of thermal energy and electrical energy, at least partially from the phases R and T or completely to the phase S by means of a control element and is adapted to the currently applied load of thermal and electrical energy, in which the current loads of thermal energy and electrical energy are permanently measured, the measured values are transmitted to the central logic, are compared therein with an annual duration and daily load curve for thermal and electrical energy matched to the consumption, load deviations are determined with permissible tolerance and the electrical power provided in one or both phases R or T is fed to the phase S in a potential-free manner by the control element in accordance with the current consumption load.
A method of degrading perfluoroalkyl compounds in a site, the method comprising the steps of: forming a mixture comprising a plurality of bubbles having a diameter less than 10 μm and a solution comprising a hydroperoxide, wherein the bubbles contain gas phase ozone at a concentration greater than or equal to 1000 ppmV; and providing the mixture to a site; and thermally activating the plurality of bubbles to a temperature greater than or equal to 40 °C, wherein the thermally activated plurality of bubbles have an oxidation potential greater than or equal to 2.9 volts and up to 3.0 volts, thereby degrading perfluoroalkyl compounds in the site, wherein the site is a groundwater or soil treatment site. forming a mixture comprising a plurality of bubbles having a diameter less than 10 μm and a solution comprising a hydroperoxide, wherein the bubbles contain gas phase ozone at a concentration greater than or equal to 1000 ppmV; and providing the mixture to a site; and thermally activating the plurality of bubbles to a temperature greater than or equal to 40 °C, wherein the thermally activated plurality of bubbles have an oxidation potential greater than or equal to 2.9 volts and up to 3.0 volts, thereby degrading perfluoroalkyl compounds in the site, wherein the site is a groundwater or soil treatment site.
Device (1; 18; 19) for the twist-free width change of a fiber strip made of continuous fibers passing through the device (1; 18; 19) to a predefined useful width, - having a transport assembly for transporting the fiber strip, - having at least one width change assembly, characterized in that the at least one width change assembly, which is designed in such a way that it changes an initial spacing (a) of two adjacent fibers of the fiber strip to a target spacing (b) of adjacent fibers of the fiber strip, the ratio between the target spacing (b) and the initial spacing (a) for a large part of the pairs of adjacent fibers matching within a tolerance band of 20%, has: - a first partially circular guide contour having a first contour radius that is located in an arrangement plane (yz) perpendicular to a transport direction (x) of the fiber strip, - a second partially circular guide contour having a second contour radius which lies in a further arrangement plane (yz) perpendicular to the transport direction (x) of the fiber strip, - the two partially circular guide contours (6, 7) being arranged coaxially, the axis of rotational symmetry of the two guide contours (6, 7), coinciding an the circumferences of the partially circular guide contours (6, 7) being located perpendicular to the transport direction (x) of the fiber strip, and - the fiber strip being guided over the two guide contours (6, 7) such that the individual fibers rest on both guide contours (6, 7), the two guide contours (6, 7) following each other directly without any interposed guide components. - having a transport assembly for transporting the fiber strip, - having at least one width change assembly, characterized in that the at least one width change assembly, which is designed in such a way that it changes an initial spacing (a) of two adjacent fibers of the fiber strip to a target spacing (b) of adjacent fibers of the fiber strip, the ratio between the target spacing (b) and the initial spacing (a) for a large part of the pairs of adjacent fibers matching within a tolerance band of 20%, has: - a first partially circular guide contour having a first contour radius that is located in an arrangement plane (yz) perpendicular to a transport direction (x) of the fiber strip, - a second partially circular guide contour having a second contour radius which lies in a further arrangement plane (yz) perpendicular to the transport direction (x) of the fiber strip, - the two partially circular guide contours (6, 7) being arranged coaxially, the axis of rotational symmetry of the two guide contours (6, 7), coinciding an the circumferences of the partially circular guide contours (6, 7) being located perpendicular to the transport direction (x) of the fiber strip, and - the fiber strip being guided over the two guide contours (6, 7) such that the individual fibers rest on both guide contours (6, 7), the two guide contours (6, 7) following each other directly without any interposed guide components.