mhurhangee/ep-ind-claims huggingface dataset:
A relief plate or stand on which a person may stand, in particular in a work situation, with a short and long axis, the plate being arcuate along the long axis, the arc opening towards the upper side of the plate, such that the plate may be given a rolling movement along the long axis when placed on a support, wherein the plate includes at least two layers, wherein the first layer has an exposed upper surface and a lower surface, the second layer has an upper surface which is attached to the first layer and a lower surface which is turned towards a support, wherein the upper surface of the first layer is cylindrical with a first radius, the lower surface of the second layer is cylindrical with a second radius, wherein the first radius is longer than the second radius, wherein the first and upper layer is formed by a soft and elastic material with hardness 10-30 Shore, and the second layer being formed by a stiffer material which defines the shape of the plate and has a hardness of 70-80 Shore.
An injection molding machine comprising: a motor; a drive circuit of the motor; a converter device including, in parallel, a first electric power conversion unit that converts AC electric power from a power source into DC electric power and supplies the DC electric power to the drive circuit and a second electric power conversion unit that converts regenerative electric power from the drive circuit into AC electric power and supplies the AC electric power to the power source; a main switch disposed in the middle of a power supply line that connects the converter device and the power source to each other; and a controller characterized in that the controller is configured to switch the main switch from ON to OFF and is configured to limit a regenerative operation of the second electric power conversion unit, with the controller switching the main switch from ON to OFF after limiting a regenerative operation of the second electric power conversion unit. a motor; a drive circuit of the motor; a converter device including, in parallel, a first electric power conversion unit that converts AC electric power from a power source into DC electric power and supplies the DC electric power to the drive circuit and a second electric power conversion unit that converts regenerative electric power from the drive circuit into AC electric power and supplies the AC electric power to the power source; a main switch disposed in the middle of a power supply line that connects the converter device and the power source to each other; and a controller characterized in that the controller is configured to switch the main switch from ON to OFF and is configured to limit a regenerative operation of the second electric power conversion unit, with the controller switching the main switch from ON to OFF after limiting a regenerative operation of the second electric power conversion unit.
A power supply apparatus for supplying an electron tube, comprising: a rectifying circuit; a series regulator for generating a predetermined power supply voltage from a DC voltage output from said rectifying circuit, the power supply voltage being a helix voltage (Ehel) supplied to said electron tube; a capacitor bank of capacitors for stabilizing said power supply voltage; a charging bypass circuit connected between input and output terminals of said series regulator; and a charging bypass control circuit for supplying a drive signal to turn the charging bypass circuit on or off and for detecting times when the output power supply voltage drops, based on an anode pulse input signal supplied to an anode of said electron tube and indicative of whether said electron tube is activated or inactivated, or based on a detected value of the helix voltage supplied to said electron tube, if a helix voltage detecting circuit detects a drop of the helix voltage or if an overvoltage comparing circuit detects that the helix voltage exceeds a predetermined voltage value; and when a drop is detected turning on the charging bypass circuit. a rectifying circuit; a series regulator for generating a predetermined power supply voltage from a DC voltage output from said rectifying circuit, the power supply voltage being a helix voltage (Ehel) supplied to said electron tube; a capacitor bank of capacitors for stabilizing said power supply voltage; a charging bypass circuit connected between input and output terminals of said series regulator; and a charging bypass control circuit for supplying a drive signal to turn the charging bypass circuit on or off and for detecting times when the output power supply voltage drops, based on an anode pulse input signal supplied to an anode of said electron tube and indicative of whether said electron tube is activated or inactivated, or based on a detected value of the helix voltage supplied to said electron tube, if a helix voltage detecting circuit detects a drop of the helix voltage or if an overvoltage comparing circuit detects that the helix voltage exceeds a predetermined voltage value; and when a drop is detected turning on the charging bypass circuit.
An aircraft environmental control system comprising: a fresh air input and a RAM air input, heat exchanger means (160,180) for receiving fresh air from the fresh air input and RAM air from the RAM air input and using RAM air to cool the fresh air, and means for providing the cooled fresh air to a cabin of the aircraft; the system further comprising means for feeding back exhaust air emitted from the cabin of the aircraft to combine with the RAM air the combined exhaust air and RAM air undergoing heat exchange with the fresh air in the heat exchanger means (160, 180) to further cool the fresh air; the system further including a controller to control the ratio of fed-back exhaust air and RAM air based on the temperature and/or pressure of the exhaust air, to cool the fresh air. a fresh air input and a RAM air input, heat exchanger means (160,180) for receiving fresh air from the fresh air input and RAM air from the RAM air input and using RAM air to cool the fresh air, and means for providing the cooled fresh air to a cabin of the aircraft; the system further comprising means for feeding back exhaust air emitted from the cabin of the aircraft to combine with the RAM air the combined exhaust air and RAM air undergoing heat exchange with the fresh air in the heat exchanger means (160, 180) to further cool the fresh air; the system further including a controller to control the ratio of fed-back exhaust air and RAM air based on the temperature and/or pressure of the exhaust air, to cool the fresh air.
A seal assembly for a gas turbine engine, comprising: a guide rail configured with a rail fluid passage; a translating device mated with and axially translatable along the guide rail, the translating device configured with a translating device fluid passage (112, 114); and a fluid coupling device mounted to and axially slidable along the guide rail, characterised in that the fluid coupling device is configured with a coupling device fluid passage adapted to direct fluid from the rail fluid passage to the translating device fluid passage (112, 114); wherein the fluid coupling device is adapted to move radially relative to the translating device. a guide rail configured with a rail fluid passage; a translating device mated with and axially translatable along the guide rail, the translating device configured with a translating device fluid passage (112, 114); and a fluid coupling device mounted to and axially slidable along the guide rail, characterised in that the fluid coupling device is configured with a coupling device fluid passage adapted to direct fluid from the rail fluid passage to the translating device fluid passage (112, 114); wherein the fluid coupling device is adapted to move radially relative to the translating device.
A production method for an Fe-Ni based heat-resistant superalloy having a composition comprising 0.08 % by mass or less of C, 0.35 % by mass or less of Si, 0.35 % by mass or less of Mn, 0.015 % by mass or less of P, 0.015 % by mass or less of S, 50.0 to 55.0 % by mass of Ni, 17.0 to 21.0 % by mass of Cr, 2.8 to 3.3 % by mass of Mo, 1.0 % by mass or less of Co, 0.30 % by mass or less of Cu, 0.20 to 0.80 % by mass of Al, 0.65 to 1.15 % by mass of Ti, 4.75 to 5.50 % by mass of Nb + Ta, 0.006 % by mass or less of B, and the balance of Fe and unavoidable impurities and having an ASTM crystal grain size number of 9 or higher, wherein the production method comprising at least a hot working step in which a material having the composition described above is subjected to hot working, wherein the hot working step comprises at least subjecting the above material to hot working at 930 to 1010°C so that a relation of (effective strain) ≥ 0.139 x (effective strain rate (/sec)) -0.30 is satisfied in an entirety of the above material; wherein the method further comprises a solution treatment step in which the material is subjected to solution treatment for 0.5 to 10 hours at a range of 950 to 1000°C after the hot working step; and wherein the method further comprises a heat treatment step in which the material is subjected to heat treatment for 5 to 60 hours in a range of 600 to 930°C after the hot working step and before the solution treatment step.
A system for testing distributed synchronous Time Triggered Protocol, TTP, communication networks, the system comprising: a first node coupled to a transmission bus, the first node configured and operable to: generate a test command comprising a test flag and a test round field; initiate a test by setting the test flag in the test command; and transmit the test command and a plurality of parameters to be tested via the transmission bus using TTP data frames; and a second node coupled to the transmission bus, the second node configured and operable to: receive the test command and the plurality of the parameters to be tested from the transmission bus; determine whether the test flag in the received test command is set; and compare parameter values in the received data frames with corresponding expected values in a test vector stored on the second node, for each of the plurality of parameters, in response to determining that the test flag is set, wherein the first node and the second node are configured to communicate with each other using the time triggered protocol on a time slot basis, and wherein each entry in the test vector represents a test value employed for testing a specific parameter of the plurality of parameters transmitted from the first node to the second node. a first node coupled to a transmission bus, the first node configured and operable to: generate a test command comprising a test flag and a test round field; initiate a test by setting the test flag in the test command; and transmit the test command and a plurality of parameters to be tested via the transmission bus using TTP data frames; and generate a test command comprising a test flag and a test round field; initiate a test by setting the test flag in the test command; and transmit the test command and a plurality of parameters to be tested via the transmission bus using TTP data frames; and a second node coupled to the transmission bus, the second node configured and operable to: receive the test command and the plurality of the parameters to be tested from the transmission bus; determine whether the test flag in the received test command is set; and compare parameter values in the received data frames with corresponding expected values in a test vector stored on the second node, for each of the plurality of parameters, in response to determining that the test flag is set, receive the test command and the plurality of the parameters to be tested from the transmission bus; determine whether the test flag in the received test command is set; and compare parameter values in the received data frames with corresponding expected values in a test vector stored on the second node, for each of the plurality of parameters, in response to determining that the test flag is set, wherein the first node and the second node are configured to communicate with each other using the time triggered protocol on a time slot basis, and wherein each entry in the test vector represents a test value employed for testing a specific parameter of the plurality of parameters transmitted from the first node to the second node.
A collapsible bulk bin container comprising: a generally rectangular base having a first upward wall extension along a first edge of the base, the first upward wall extension having a first hinge pocket for receiving a hinge axis from a side wall; a first side wall having a first hinge axis extending from a bottom portion of the side wall, the first hinge axis having a first hinge pin extending outward in a first direction and a second hinge pin extending outward in a second direction opposing the first direction; characterized in that it further comprises a separable first retention clip connected to the base that blocks the first hinge pin when the first hinge axis is positioned in the first hinge pocket of the first upward wall extension; wherein the first retention clip blocks the second hinge pin when the first hinge axis is positioned in the first hinge pocket of the first upward wall extension. a generally rectangular base having a first upward wall extension along a first edge of the base, the first upward wall extension having a first hinge pocket for receiving a hinge axis from a side wall; a first side wall having a first hinge axis extending from a bottom portion of the side wall, the first hinge axis having a first hinge pin extending outward in a first direction and a second hinge pin extending outward in a second direction opposing the first direction;
A wall saw, comprising a saw unit having a swivel arm and a saw blade mountable on the swivel arm, a blade guard holder and a guard guide, characterized in that the guard guide comprises • a first partial arm fixed to the saw unit, • a second, rotatable partial arm, which is fixed in an articulated manner to the free end of the first partial arm, • and a third rotatable partial arm, which is fixed in an articulated manner to the second partial arm, wherein the blade guard holder, to which a blade guard may be mounted, is attached to the free end of the third partial arm. • a first partial arm fixed to the saw unit, • a second, rotatable partial arm, which is fixed in an articulated manner to the free end of the first partial arm, • and a third rotatable partial arm, which is fixed in an articulated manner to the second partial arm, wherein the blade guard holder, to which a blade guard may be mounted, is attached to the free end of the third partial arm.
A Wireless Transmit/Receive Unit, WTRU, comprising: a processor and a transceiver, wherein the WTRU is configured to: receive configuration information identifying multiple groups of search spaces associated with a control resource set; monitor, according to the configuration information, a first group of the search spaces for a first physical downlink control channel, PDCCH, transmission; receive the first PDCCH transmission via the monitored first group of the search spaces, the first PDCCH transmission including downlink control information, DCI, the DCI including information indicating an index associated with a second group of the search spaces for monitoring by the WTRU for a second PDCCH transmission; monitor, according to the DCI, the second group of the search spaces for the second PDCCH transmission; and receive the second PDCCH transmission via the monitored second group of the search spaces, wherein the WTRU is configured to monitor only one of the first and second groups of the search spaces at a time. receive configuration information identifying multiple groups of search spaces associated with a control resource set; monitor, according to the configuration information, a first group of the search spaces for a first physical downlink control channel, PDCCH, transmission; receive the first PDCCH transmission via the monitored first group of the search spaces, the first PDCCH transmission including downlink control information, DCI, the DCI including information indicating an index associated with a second group of the search spaces for monitoring by the WTRU for a second PDCCH transmission; monitor, according to the DCI, the second group of the search spaces for the second PDCCH transmission; and receive the second PDCCH transmission via the monitored second group of the search spaces, wherein the WTRU is configured to monitor only one of the first and second groups of the search spaces at a time.
A method for determining the suitability of a cookware (20, 22) for a corresponding induction coil of an induction cooking hob, wherein the method includes the steps of: - detecting the current through the induction coil, - calculating the power transfer from the detected current, - estimating the suitability of the cookware (20, 22), and - outputting at least one optical and/or acoustic signal corresponding with the suitability of the cookware (20, 22). characterized by the further steps of - detecting the phase difference between the voltage and current of the induction coil, and/or - detecting the frequency at the induction coil, and - comparing the detected current with a stored maximum value of said current, and - comparing the detected phase difference with a stored maximum value of said phase difference, and/or - comparing the detected frequency with a stored maximum frequency, respectively, wherein - the power transfer is calculated from the detected current and the phase difference and/or the frequency, and wherein - the suitability of the cookware (20, 22) is estimated in dependence of the power transfer and at least two of the compared parameters, i.e. the current and the phase difference and/or the frequency. - detecting the current through the induction coil, - calculating the power transfer from the detected current, - estimating the suitability of the cookware (20, 22), and - outputting at least one optical and/or acoustic signal corresponding with the suitability of the cookware (20, 22). characterized by the further steps of - detecting the phase difference between the voltage and current of the induction coil, and/or - detecting the frequency at the induction coil, and - comparing the detected current with a stored maximum value of said current, and - comparing the detected phase difference with a stored maximum value of said phase difference, and/or - comparing the detected frequency with a stored maximum frequency, respectively, wherein - the power transfer is calculated from the detected current and the phase difference and/or the frequency, and wherein - the suitability of the cookware (20, 22) is estimated in dependence of the power transfer and at least two of the compared parameters, i.e. the current and the phase difference and/or the frequency.
A substrate for an organic electronic device, comprising: a flexible base film and an inorganic material layer formed on the base film; wherein the inorganic material layer has a multilayer structure in which first and second sub layers are alternately stacked, the first and second sub layers having a thickness of 7 nm or less respectively; characterized in that: the base film has a refractive index with respect to light having a wavelength of 550 nm of 1.7 or more; the inorganic material layer has a refractive index with respect to a wavelength of 550 nm of 1.8 to 2.2; the inorganic material layer does not include a layer having a thickness of more than 7 nm; and the inorganic material layer and the base film have a difference in refractive index of 1 or less. a flexible base film and an inorganic material layer formed on the base film; wherein the inorganic material layer has a multilayer structure in which first and second sub layers are alternately stacked, the first and second sub layers having a thickness of 7 nm or less respectively; characterized in that: the base film has a refractive index with respect to light having a wavelength of 550 nm of 1.7 or more; the inorganic material layer has a refractive index with respect to a wavelength of 550 nm of 1.8 to 2.2; the inorganic material layer does not include a layer having a thickness of more than 7 nm; and the inorganic material layer and the base film have a difference in refractive index of 1 or less. the base film has a refractive index with respect to light having a wavelength of 550 nm of 1.7 or more; the inorganic material layer has a refractive index with respect to a wavelength of 550 nm of 1.8 to 2.2; the inorganic material layer does not include a layer having a thickness of more than 7 nm; and the inorganic material layer and the base film have a difference in refractive index of 1 or less.
An information processing apparatus comprising: a number generation unit configured to generate numbers used in coefficients of terms included in a set of multi-order multivariate polynomials F = (f 1,..., f m), using a predetermined function, from information shared between entities executing an algorithm of a public-key authentication scheme or a digital signature scheme that uses a public key including the set of multi-order multivariate polynomials F; and an allocation unit configured to allocate the numbers generated by the number generation unit to the coefficients of the multi-order multivariate polynomials for which the set of multi-order multivariate polynomials F are included in constituent elements, wherein the allocation unit groups as a data structure the coefficients of the terms having an identical combination of variables among the multiple coefficients of the multi-order multivariate polynomials for which the set of multi-order multivariate polynomials F are included in the constituent elements and executes an allocation process in units of groups. a number generation unit configured to generate numbers used in coefficients of terms included in a set of multi-order multivariate polynomials F = (f 1,..., f m), using a predetermined function, from information shared between entities executing an algorithm of a public-key authentication scheme or a digital signature scheme that uses a public key including the set of multi-order multivariate polynomials F; and an allocation unit configured to allocate the numbers generated by the number generation unit to the coefficients of the multi-order multivariate polynomials for which the set of multi-order multivariate polynomials F are included in constituent elements, wherein the allocation unit groups as a data structure the coefficients of the terms having an identical combination of variables among the multiple coefficients of the multi-order multivariate polynomials for which the set of multi-order multivariate polynomials F are included in the constituent elements and executes an allocation process in units of groups.