mhurhangee/patent-ind-claim-en huggingface dataset:
A user terminal configured to communicate with a plurality of cell groups, each group being formed with one or more cells, the user terminal comprising: a receiving section configured to receive from a secondary cell, SCell a downlink control information; and a control section configured to select at least one cell from cells which are configured in each cell group and to which resources for transmitting uplink control information is able to be allocated, and to control the cell in which to transmit the uplink control information, wherein the cell in which to transmit the uplink control information is a secondary cell, SCell, wherein, the downlink control information includes information indicative of cross-carrier scheduling, which configures the control section to determine a resource to transmit the uplink control information based on a first or a second different DCI parameter, respectively, depending on whether a SCell from which the user terminal has received the downlink control information and the SCell from which to transmit the uplink control information are same or not. a receiving section configured to receive from a secondary cell, SCell a downlink control information; and a control section configured to select at least one cell from cells which are configured in each cell group and to which resources for transmitting uplink control information is able to be allocated, and to control the cell in which to transmit the uplink control information, wherein the cell in which to transmit the uplink control information is a secondary cell, SCell, wherein, the downlink control information includes information indicative of cross-carrier scheduling, which configures the control section to determine a resource to transmit the uplink control information based on a first or a second different DCI parameter, respectively, depending on whether a SCell from which the user terminal has received the downlink control information and the SCell from which to transmit the uplink control information are same or not.
A method for performing an idle mode redistribution evaluation by a mobile device in a mobile communication network, the method comprising: determining a plurality of redistribution targets, each redistribution target corresponding to a different frequency and comprising at least one cell within which the mobile device can camp on in idle mode in the wireless communication network; identifying , using information received from a first cell of the wireless communication network, at least one redistribution factor, each redistribution factor corresponding to a redistribution target, the first cell on which the mobile device is currently camped; and characterized by : determining whether to stay on the first cell or move to a second cell corresponding to one of the redistribution targets based on the at least one redistribution factor, wherein a redistribution factor for a redistribution target indicates a proportion of mobile devices, currently distributed to each cell, which are intended to camp on each cell corresponding to each redistribution target, and wherein a redistribution factor for a specific cell is used by the mobile device if the mobile device is located in the specific cell, the specific cell being one of a plurality of cells on a frequency corresponding to the redistribution target. determining a plurality of redistribution targets, each redistribution target corresponding to a different frequency and comprising at least one cell within which the mobile device can camp on in idle mode in the wireless communication network; identifying , using information received from a first cell of the wireless communication network, at least one redistribution factor, each redistribution factor corresponding to a redistribution target, the first cell on which the mobile device is currently camped; and characterized by : determining whether to stay on the first cell or move to a second cell corresponding to one of the redistribution targets based on the at least one redistribution factor, wherein a redistribution factor for a redistribution target indicates a proportion of mobile devices, currently distributed to each cell, which are intended to camp on each cell corresponding to each redistribution target, and wherein a redistribution factor for a specific cell is used by the mobile device if the mobile device is located in the specific cell, the specific cell being one of a plurality of cells on a frequency corresponding to the redistribution target. determining whether to stay on the first cell or move to a second cell corresponding to one of the redistribution targets based on the at least one redistribution factor, wherein a redistribution factor for a redistribution target indicates a proportion of mobile devices, currently distributed to each cell, which are intended to camp on each cell corresponding to each redistribution target, and wherein a redistribution factor for a specific cell is used by the mobile device if the mobile device is located in the specific cell, the specific cell being one of a plurality of cells on a frequency corresponding to the redistribution target.
A vibrating-trap device intended to be fixed to a rotating structure subject to torsion vibrations, the device being mounted on a rotation axis intended to be that of the rotating structure and including several vibrating resonators to trap the vibrations, the vibrating resonators being spatially adjacent to one another and being connected to the rotating structure directly, or indirectly by a common support , each resonator having the shape of a blade with a free end and an end rigidly fixed to the support or to the rotating structure, the width of this blade being aligned with the rotation axis, each resonator having natural vibration frequencies, each resonator being made from a metallic material, the device having at least partially a star shape with each resonator forming a branch of the star, the free end being more remote from the rotation axis than the fixed end, the spatial distribution of the masses of the device achieving its inertial equilibrium relative to the rotation axis , characterized in that at least one resonator is twisted.
A method for in-substrate tinting of a spectacle lens substrate , the method comprising the following steps: - S1: providing a spectacle lens substrate comprising a polymeric lens material , - S2: providing a composition comprising a polymeric carrier material , - S3: applying a pattern of the composition on a surface of the spectacle lens substrate , and - S4: heating the spectacle lens substrate to allow for diffusion of a dye substance between the carrier material and the lens material wherein the lens material comprises a dye substance and the dye substance is transferred from the lens material into the carrier material by diffusion. - S1: providing a spectacle lens substrate comprising a polymeric lens material , - S2: providing a composition comprising a polymeric carrier material , - S3: applying a pattern of the composition on a surface of the spectacle lens substrate , and - S4: heating the spectacle lens substrate to allow for diffusion of a dye substance between the carrier material and the lens material
An apparatus for compensating for noise in a motor vehicle comprising a reception device that detects noise that occurs, comprising a signal generation device that generates at least one signal on the basis of the noise that is detected and comprising at least one loudspeaker that takes the sounds waves as a basis for generating discharge sound waves and emits them into the interior of the vehicle, the discharge sound waves being phase-shifted with respect to the sound waves of the noise that occurs, wherein the at least one loudspeaker is arranged in the interior of the vehicle such that the discharge sound waves are emitted into a region of a sleeping area ; wherein the reception device and the loudspeaker are integrated in a microphone-loudspeaker unit; characterized in that : the at least one loudspeaker is arranged in the region of a bunk ; and the integrated microphone-loudspeaker unit is provided both in the region of a backrest of a driver seat and opposite in the region of the rear wall of a driver's cab of a commercial vehicle or is secured to an inner wall in the region of the bunk with the aid of securing means or is integrated therein. wherein the at least one loudspeaker is arranged in the interior of the vehicle such that the discharge sound waves are emitted into a region of a sleeping area ; wherein the reception device and the loudspeaker are integrated in a microphone-loudspeaker unit; characterized in that : the at least one loudspeaker is arranged in the region of a bunk ; and the integrated microphone-loudspeaker unit is provided both in the region of a backrest of a driver seat and opposite in the region of the rear wall of a driver's cab of a commercial vehicle or is secured to an inner wall in the region of the bunk with the aid of securing means or is integrated therein. the at least one loudspeaker is arranged in the region of a bunk ; and the integrated microphone-loudspeaker unit is provided both in the region of a backrest of a driver seat and opposite in the region of the rear wall of a driver's cab of a commercial vehicle or is secured to an inner wall in the region of the bunk with the aid of securing means or is integrated therein.
A positive electrode active material for a sodium ion battery , mainly comprising an O3-phase layered metal oxide having the following molecular formula: Na 0.85 Li 0.1 Ni 0.175 Fe 0.2 Mn 0.525 O 2 (Formula I) wherein the O3-phase layered metal oxide has a ratio of I /I at 0.87, in an X-ray diffraction spectrum, wherein 1 denotes a peak intensity of the crystal plane of the O3-phase layered metal oxide, while 1 denotes a peak intensity of the crystal plane of the O3-phase layered metal oxide, and I /I reflects an antisite defect of sodium metal cation in the O3-phase layered metal oxide, wherein the O3-phase layered metal oxide has a hexagonal crystal system with a space group specified by R3m, wherein a ratio of crystal lattice parameter c to crystal lattice parameter a is 5.58.
A method for managing the temperature of a room having a wall and a ceiling, the method comprising: disposing one or more fixtures comprising one or more phase change materials/ PCM in an interior of the room, characterized in that the one or more phase change materials/PCM are provided in an amount between 0.73 kg and 1.71 kg per square meter (0.15 lbs. and 0.35 lbs. per square foot) of floor space in the interior of the room; and in that the total area of fixtures comprising a phase change material in the room is selected according to the equation: Total Fixture Area = R × C × O M , wherein R is the area of the floor space of the room, C is the average ceiling height of the room, O is a PCM room density factor, and M is a PCM fixture density factor; wherein the PCM room density factor O is obtained by converting a room density value, said room density value being a ratio of the PCM to a floor area of a room, wherein the ratio is between 0.73 kg and 1.71 kg per square meter and the PCM room density factor O is obtained by dividing the room density value by 10 and setting the units to per length (e.g. per meter); and wherein the PCM fixture density factor M is obtained by converting a fixture density value, said fixture density value being a ratio of the PCM to a fixture area, and the ratio is between 1.61 kg and 3.66 kg per square meter into a unit-less PCM fixture density factor M by removing the units. disposing one or more fixtures comprising one or more phase change materials/ PCM in an interior of the room, characterized in that the one or more phase change materials/PCM are provided in an amount between 0.73 kg and 1.71 kg per square meter (0.15 lbs. and 0.35 lbs. per square foot) of floor space in the interior of the room; and in that the total area of fixtures comprising a phase change material in the room is selected according to the equation: Total Fixture Area = R × C × O M , wherein R is the area of the floor space of the room, C is the average ceiling height of the room, O is a PCM room density factor, and M is a PCM fixture density factor; wherein the PCM room density factor O is obtained by converting a room density value, said room density value being a ratio of the PCM to a floor area of a room, wherein the ratio is between 0.73 kg and 1.71 kg per square meter and the PCM room density factor O is obtained by dividing the room density value by 10 and setting the units to per length (e.g. per meter); and wherein the PCM fixture density factor M is obtained by converting a fixture density value, said fixture density value being a ratio of the PCM to a fixture area, and the ratio is between 1.61 kg and 3.66 kg per square meter into a unit-less PCM fixture density factor M by removing the units.
Furnace comprising a heat exchanger for cooling the flue gases of the furnace and heating the surrounding room air, the heat exchanger having, in a housing , a flue gas inlet for the flue gas of the furnace , and a convection tube being arranged within the housing , with dividers and baffles being arranged between the inner faces of the housing and the outer face of the convection tube , characterised in that the flue gas is guided helically around the convection tube within the housing to at least one flue gas outlet .
A rotary impact tool comprising: a motor ; an end-bit holding part driven by the motor ; an impact mechanism provided on a drive transmission path from the motor to the end-bit holding part and configured to intermittently produce rotary impacts, the rotary impact transmitting a drive force of the motor to the end-bit holding part ; a switching element (41A-41F) configured to change a voltage supplied to the motor ; and a control unit controlling the switching element (41A-41F), wherein the control unit is configured to start to gradually decrease the voltage supplied to the motor within a period of time from a timing when a second rotary impact subsequent to a first rotary impact starts to a timing when the second rotary impact ends, characterized in that the control unit is configured such that the voltage supplied to the motor begins to gradually rise within a period of time from a timing when a first rotary impact ends to a timing when a second rotary impact subsequent to the first rotary impact starts. a motor ; an end-bit holding part driven by the motor ; an impact mechanism provided on a drive transmission path from the motor to the end-bit holding part and configured to intermittently produce rotary impacts, the rotary impact transmitting a drive force of the motor to the end-bit holding part ; a switching element (41A-41F) configured to change a voltage supplied to the motor ; and a control unit controlling the switching element (41A-41F), wherein the control unit is configured to start to gradually decrease the voltage supplied to the motor within a period of time from a timing when a second rotary impact subsequent to a first rotary impact starts to a timing when the second rotary impact ends, characterized in that the control unit is configured such that the voltage supplied to the motor begins to gradually rise within a period of time from a timing when a first rotary impact ends to a timing when a second rotary impact subsequent to the first rotary impact starts.
A connector for a flexible busbar , comprising: a jaw having a first member and a second member both depending from a support member and spaced from one another by a distance ; and at least one relief defined on an inner surface of the first member and/or second member , the jaw being deformably compressible upon application of a deformation force (F d ) on the first and/or second members to form an electrical and mechanical connection with the flexible busbar , wherein the at least one relief is disposed at an intersection of the first member and/or the second member and the support member so that the relief functions as a weakened area for compression of the jaw . a jaw having a first member and a second member both depending from a support member and spaced from one another by a distance ; and at least one relief defined on an inner surface of the first member and/or second member , the jaw being deformably compressible upon application of a deformation force (F d ) on the first and/or second members to form an electrical and mechanical connection with the flexible busbar , wherein the at least one relief is disposed at an intersection of the first member and/or the second member and the support member so that the relief functions as a weakened area for compression of the jaw .
An in vitro method of evaluating or selecting an androgen receptor activity regulator selective to sebaceous glands or hair follicles, the method comprising the steps: (A) applying a test agent to cells from sebaceous glands or hair follicles under a hypoxic condition; (B') measuring activity of a factor induced by HIF1α in the cells, wherein the factor induced by HIF1α is a glycolytic enzyme; (C') comparing the activity measured in the (B') with activity of the factor in a control group; and (D') determining a regulatory effect of the test agent on the activity of the factor based on the result in the (C'). (A) applying a test agent to cells from sebaceous glands or hair follicles under a hypoxic condition; (B') measuring activity of a factor induced by HIF1α in the cells, wherein the factor induced by HIF1α is a glycolytic enzyme; (C') comparing the activity measured in the (B') with activity of the factor in a control group; and (D') determining a regulatory effect of the test agent on the activity of the factor based on the result in the (C').
A deterioration diagnosis apparatus of a battery, the deterioration diagnosis apparatus comprising one or more processors configured to: execute discharging of each of a plurality of cells included in an assembled battery while measuring a voltage of each of the cells; estimate a deterioration degree of each of the cells included in the assembled battery using voltage data indicating a transition of the voltage of each of the cells included in the assembled battery from a discharging start voltage to a predetermined discharging end voltage (V end ), the predetermined discharging end voltage (V end ) being a cell voltage at which a change degree of the cell voltage per unit discharging amount starts to sharply rise while the cell voltage is dropping due to the discharging; and end the discharging when voltages of all the cells included in the assembled battery reach the predetermined discharging end voltage (V end ). execute discharging of each of a plurality of cells included in an assembled battery while measuring a voltage of each of the cells; estimate a deterioration degree of each of the cells included in the assembled battery using voltage data indicating a transition of the voltage of each of the cells included in the assembled battery from a discharging start voltage to a predetermined discharging end voltage (V end ), the predetermined discharging end voltage (V end ) being a cell voltage at which a change degree of the cell voltage per unit discharging amount starts to sharply rise while the cell voltage is dropping due to the discharging; and end the discharging when voltages of all the cells included in the assembled battery reach the predetermined discharging end voltage (V end ).
A Non-Linear Voltammetry, NLV, -based method for charging a battery system, said method comprising steps for charging said battery system, every of said charging step including steps of: - setting said battery system to a certain charging-voltage value which is non-linearly changing and gradually increasing at every step, during a variable step duration, - measuring the current being drawn by said battery system, to determine a time-derivative ∂ I ∂ t of charge current and monitor a drop-rate of said drawn current, - measuring temperature within said battery system, - applying a relaxation with charging kept on hold and zero current to said battery system to stabilize with its new charge, whenever said measured temperature rises above a safety limit, for a time duration until resume when an expected temperature range is secured, - determining a next charging-voltage value for new charging step, by applying for the previous step duration a time-derivative of voltage ∂ v ∂ t that is a calculated from the following equation: Kn = ∂ v ∂ t ∂ I ∂ t α where: - Kn is changed at every step, based on a set of parameters including a State of Charge, SOC, and a State of Health, SOH, of said battery system; - α is an adjustable constant, to match non- linear relations between current and voltage based on different types of battery, - ∂ I ∂ t is an average value of the time derivative of the drawn current during said previous charging step. - setting said battery system to a certain charging-voltage value which is non-linearly changing and gradually increasing at every step, during a variable step duration, - measuring the current being drawn by said battery system, to determine a time-derivative ∂ I ∂ t of charge current and monitor a drop-rate of said drawn current, - measuring temperature within said battery system, - applying a relaxation with charging kept on hold and zero current to said battery system to stabilize with its new charge, whenever said measured temperature rises above a safety limit, for a time duration until resume when an expected temperature range is secured, - determining a next charging-voltage value for new charging step, by applying for the previous step duration a time-derivative of voltage ∂ v ∂ t that is a calculated from the following equation: Kn = ∂ v ∂ t ∂ I ∂ t α - Kn is changed at every step, based on a set of parameters including a State of Charge, SOC, and a State of Health, SOH, of said battery system; - α is an adjustable constant, to match non- linear relations between current and voltage based on different types of battery, - ∂ I ∂ t is an average value of the time derivative of the drawn current during said previous charging step.