mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for automatically treating excrement, the apparatus comprising: - a mounting unit for receiving excrement from a patient, - a control device unit including a washing water supply unit configured to supply washing water for washing the excrement, - a bidet connected to the mounting unit, and - wherein a washing water supply path is defined from the washing water supply unit to the mounting unit, wherein the washing water supply unit includes: - an instantaneous water heater provided in the washing water supply path to heat the washing water supplied to the mounting unit; and - a washing water storage tank in which the washing water is stored; characterized by: pumps which are adapted to be operated in a forward direction so as to supply the washing water from the washing water storage tank to the mounting unit, or to be operated in a reverse direction so as to collect residual washing water in the washing water supply path to the washing water storage tank; and a controller configured to control the pumps in the forward direction or the reverse direction, the controller being adapted to instantly control the pumps in the forward direction when the excrement is detected by a sensor in the mounting unit, and to control the pumps in the reverse direction for a set time so as to collect the residual washing water in the washing water supply path upstream relative to the instantaneous water heater after an operation of treating the excrement is completed. - a mounting unit for receiving excrement from a patient, - a control device unit including a washing water supply unit configured to supply washing water for washing the excrement, - a bidet connected to the mounting unit, and - wherein a washing water supply path is defined from the washing water supply unit to the mounting unit, wherein the washing water supply unit includes: - an instantaneous water heater provided in the washing water supply path to heat the washing water supplied to the mounting unit; and - a washing water storage tank in which the washing water is stored; pumps which are adapted to be operated in a forward direction so as to supply the washing water from the washing water storage tank to the mounting unit, or to be operated in a reverse direction so as to collect residual washing water in the washing water supply path to the washing water storage tank; and a controller configured to control the pumps in the forward direction or the reverse direction, the controller being adapted to instantly control the pumps in the forward direction when the excrement is detected by a sensor in the mounting unit, and to control the pumps in the reverse direction for a set time so as to collect the residual washing water in the washing water supply path upstream relative to the instantaneous water heater after an operation of treating the excrement is completed.
An energy storage system comprising an energy storage power supply, ESPS, and at least two power conversion systems, PCSs, wherein output terminals of the at least two PCSs are connected in parallel to connect to an alternating current power grid, input terminals of the at least two PCSs are connected to the energy storage power supply, • wherein each PCS of the at least two PCSs comprises a voltage detection circuit, a power conversion circuit, and a controller, and: ∘ the power conversion circuit of each PCS is configured to convert, in an on-grid state, electric energy provided by the energy storage power supply, and output converted electric energy to the alternating current power grid; ∘ the voltage detection circuit of each PCS is configured to detect a power grid voltage at a parallel connection point of the output terminals of the at least two PCSs; characterized in that ∘ the controller of each PCS is configured to, when determining, based on the power grid voltage at the parallel connection point, that islanding occurs in the alternating current power grid, adjust an angle of an output voltage of the PCS to a reference angle, wherein the reference angle is obtained by each PCS based on an angular frequency of the power grid voltage when the at least two PCSs are on-grid, so that the angles of the output voltages of all PCSs among the at least two PCSs are the same. • wherein each PCS of the at least two PCSs comprises a voltage detection circuit, a power conversion circuit, and a controller, and: ∘ the power conversion circuit of each PCS is configured to convert, in an on-grid state, electric energy provided by the energy storage power supply, and output converted electric energy to the alternating current power grid; ∘ the voltage detection circuit of each PCS is configured to detect a power grid voltage at a parallel connection point of the output terminals of the at least two PCSs; ∘ the power conversion circuit of each PCS is configured to convert, in an on-grid state, electric energy provided by the energy storage power supply, and output converted electric energy to the alternating current power grid; ∘ the voltage detection circuit of each PCS is configured to detect a power grid voltage at a parallel connection point of the output terminals of the at least two PCSs; ∘ the controller of each PCS is configured to, when determining, based on the power grid voltage at the parallel connection point, that islanding occurs in the alternating current power grid, adjust an angle of an output voltage of the PCS to a reference angle, wherein the reference angle is obtained by each PCS based on an angular frequency of the power grid voltage when the at least two PCSs are on-grid, so that the angles of the output voltages of all PCSs among the at least two PCSs are the same.
A method for determining an uplink transmission power, comprising: determining, by a user equipment, an overlap between an uplink channel of a cell in a current subframe and an uplink channel of another cell in an adjacent subframe, the cell being in carrier aggregation with the another cell; and determining, by the user equipment, according to the determined overlap, transmission power of a physical uplink shared channel, PUSCH, of the cell in the current subframe and the another cell in the current subframe. determining, by a user equipment, an overlap between an uplink channel of a cell in a current subframe and an uplink channel of another cell in an adjacent subframe, the cell being in carrier aggregation with the another cell; and determining, by the user equipment, according to the determined overlap, transmission power of a physical uplink shared channel, PUSCH, of the cell in the current subframe and the another cell in the current subframe.
A focus control device comprising: a focus control section configured to: - control a focus of an imaging optical system, and - set a focus mode of the imaging optical system, the imaging optical system including at least a zoom lens (12, 240) configured to adjust an optical magnification; and an image acquisition section configured to acquire an image through the imaging optical system, the focus mode including a fixed focus mode and an autofocus, AF, mode, the focus control section being configured to switch the focus mode between the fixed focus mode and the AF mode corresponding to whether the zoom lens is positioned on a wide-angle side or a telescopic side relative to a reference point that is situated between a wide-angle end and a telescopic end, and the focus control section being configured to control the focus so that an in-focus object distance monotonously decreases when a position of the zoom lens has moved from the wide-angle side to the telescopic side in a state in which the fixed focus mode is selected as the focus mode. a focus control section configured to: - control a focus of an imaging optical system, and - set a focus mode of the imaging optical system, the imaging optical system including at least a zoom lens (12, 240) configured to adjust an optical magnification; and - control a focus of an imaging optical system, and - set a focus mode of the imaging optical system, the imaging optical system including at least a zoom lens (12, 240) configured to adjust an optical magnification; and an image acquisition section configured to acquire an image through the imaging optical system, the focus mode including a fixed focus mode and an autofocus, AF, mode, the focus control section being configured to switch the focus mode between the fixed focus mode and the AF mode corresponding to whether the zoom lens is positioned on a wide-angle side or a telescopic side relative to a reference point that is situated between a wide-angle end and a telescopic end, and the focus control section being configured to control the focus so that an in-focus object distance monotonously decreases when a position of the zoom lens has moved from the wide-angle side to the telescopic side in a state in which the fixed focus mode is selected as the focus mode.
A DNA construct comprising a polynucleotide molecule having gene regulatory activity and (i) comprising a polynucleotide sequence of SEQ ID NO:1, or (ii) consisting of a polynucleotide sequence with at least 98% sequence identity with the full-length polynucleotide sequence of SEQ ID NO:1 providing for expression in developing floral structures, wherein said polynucleotide molecule is operably linked to a transgene of interest. (i) comprising a polynucleotide sequence of SEQ ID NO:1, or (ii) consisting of a polynucleotide sequence with at least 98% sequence identity with the full-length polynucleotide sequence of SEQ ID NO:1 providing for expression in developing floral structures,
Steam power plant for generating electrical energy, comprising a steam turbine, a steam generator and a condenser, and also a live steam pipeline which fluidically interconnects the steam turbine with the steam generator, an exhaust steam line which fluidically interconnects the steam turbine with the condenser, a bypass pipeline which fluidically interconnects the live steam pipeline with the exhaust steam pipeline, wherein provision is made in the bypass pipeline for a bypass-steam cooler, which is designed for cooling steam which can flow in the bypass pipeline, characterized in that the bypass-steam cooler is arranged directly downstream of a first branch from the live steam pipeline to the bypass pipeline.
A stator assembly, comprising: a cylindrical stator core, wherein multiple stator slots spaced out along a circumferential direction of the stator core exist on the stator core; and a stator winding, wherein the stator winding comprises multiple conductor segments, each of the conductor segments comprises an intra-slot part (212, 213) disposed in a stator slot of the stator core, a first end and a second end that are disposed outside the stator core, the intra-slot part (212, 213) is connected between the first end and the second end, the second end of each of the multiple conductor segments forms a welding end, and a lead-out line from each phase of the stator winding is located at the welding end, wherein the stator winding includes at least one phase, said at least one phase including a star point line, and wherein all star point lines of each phase of the stator winding are located at the welding end; the stator assembly further comprises a neutral line, and the neutral line is connected to each of the star point lines, wherein the neutral line forms a shape of an arc segment; characterized in that the star point lines of the stator winding are indirectly connected to the neutral line through at least one connection block. a cylindrical stator core, wherein multiple stator slots spaced out along a circumferential direction of the stator core exist on the stator core; and a stator winding, wherein the stator winding comprises multiple conductor segments, each of the conductor segments comprises an intra-slot part (212, 213) disposed in a stator slot of the stator core, a first end and a second end that are disposed outside the stator core, the intra-slot part (212, 213) is connected between the first end and the second end, the second end of each of the multiple conductor segments forms a welding end, and a lead-out line from each phase of the stator winding is located at the welding end, wherein the stator winding includes at least one phase, said at least one phase including a star point line, and wherein all star point lines of each phase of the stator winding are located at the welding end; the stator assembly further comprises a neutral line, and the neutral line is connected to each of the star point lines, wherein the neutral line forms a shape of an arc segment; characterized in that the star point lines of the stator winding are indirectly connected to the neutral line through at least one connection block.
A metered dose applicator comprising: a container for holding a flowable product; a closure that can be seated and unseated from the container; a dropper having a central longitudinal axis and a usable volume, wherein the dropper slides along the central longitudinal axis relative to the closure when the closure is being seated or unseated from the container, a piston that fits inside the dropper, such that: the piston and dropper can slide up and down relative to each other; a water tight seal is provided between a portion of the dropper and a portion of the piston; and a first spring that compresses and elongates as the piston and dropper slide relative to each other, the bottom of the first spring bearing against the dropper, while the top of the first spring bearing against the piston which bears against the closure, wherein the size of the usable volume can change, a negative pressure being created in the dropper as the closure is being unseated from the container. a container for holding a flowable product; a closure that can be seated and unseated from the container; a dropper having a central longitudinal axis and a usable volume, wherein the dropper slides along the central longitudinal axis relative to the closure when the closure is being seated or unseated from the container, a piston that fits inside the dropper, such that: the piston and dropper can slide up and down relative to each other; a water tight seal is provided between a portion of the dropper and a portion of the piston; and the piston and dropper can slide up and down relative to each other; a water tight seal is provided between a portion of the dropper and a portion of the piston; and a first spring that compresses and elongates as the piston and dropper slide relative to each other, the bottom of the first spring bearing against the dropper, while the top of the first spring bearing against the piston which bears against the closure, wherein the size of the usable volume can change, a negative pressure being created in the dropper as the closure is being unseated from the container.
An electromagnetic radiation absorbing composition comprising an admixture of carbon nanotubes present in the range of from 0.1 to 3v/v% dried, magnetic particulates with an average longest dimension of at least 1 micron, present in the range of from 15 to 30%v/v dried, in a non-conductive binder.
A gas turbine engine component comprising: an outer surface (201;421) of a first wall (420;520); an inner surface (202;422) of the first wall (420;520); a first cooling hole (210;425;525) extending from the outer surface (201;421) of the first wall (420;520) to the inner surface (202;422) of the first wall (420;520); a second wall (410;510) comprising an impingement hole (415;515), wherein the impingement hole (415;515) is configured to direct cooling air to the first wall (420;520); and a segmented wall coupling the first wall (420;520) to the second wall (410;510), wherein the first cooling hole (210; 425; 525) comprising an inlet which is formed at an acute angle relative to the outer surface (201; 421) and an outlet which forms an acute angle with the inner surface (202; 422); and characterised in that: the first cooling hole (210;425;525) is nonlinear; and the segmented wall, first wall (420;520) and second wall (410;510) are formed together by a direct metal laser sintering (DMLS) process. an outer surface (201;421) of a first wall (420;520); an inner surface (202;422) of the first wall (420;520); a first cooling hole (210;425;525) extending from the outer surface (201;421) of the first wall (420;520) to the inner surface (202;422) of the first wall (420;520); a second wall (410;510) comprising an impingement hole (415;515), wherein the impingement hole (415;515) is configured to direct cooling air to the first wall (420;520); and a segmented wall coupling the first wall (420;520) to the second wall (410;510), wherein the first cooling hole (210; 425; 525) comprising an inlet which is formed at an acute angle relative to the outer surface (201; 421) and an outlet which forms an acute angle with the inner surface (202; 422); and characterised in that: the first cooling hole (210;425;525) is nonlinear; and the segmented wall, first wall (420;520) and second wall (410;510) are formed together by a direct metal laser sintering (DMLS) process.
Method for generating a flow of fluid implemented in a device comprising a membrane provided with at least one hole as well as means generating back-and-forth movements, wherein a flow is generated through the membrane by actuating said membrane, at least at said at least one hole, according to a mode of deformation of said at least one hole causing said at least one hole to open and close and disturbing the fluid in order to generate said flow through the membrane, in a given direction, and wherein the device comprises for essential elements allowing for the implementation of the method, only, on the one hand, the membrane provided with said at least one deformable hole, and on the other hand, the means generating back-and-forth movements associated with this membrane and method according to which the flow of the fluid, and thus the generation of a net flow rate through the membrane in a given direction, as outflow or as suction is caused by the deformation mode of the hole resulting from the actuation of the membrane, the hole not being associated with any added flow regulating device such as a safety valve or valve or other element closing off the hole in order to impose a direction of flow, nor does it have a specific geometry or an accessory that imposes a preferred direction of circulation of fluid through the membrane.
A method in a user equipment, the method comprising: associating at least one physical uplink control channel with a first secondary cell, wherein serving cells are defined to the user equipment in a mobile communications network, said serving cells comprising a primary cell and secondary cells, wherein the first secondary cell is not defined for transmission of a physical uplink control channel, and wherein second secondary cells are defined for transmission of the at least one physical uplink control channel associated with the first secondary cell; and de-activating the first secondary cell, when all the second secondary cells defined for transmission of the at least one physical uplink control channel associated with the first secondary cell are de-activated, wherein the first secondary cell is a part of any one of at least two groups of secondary cells associated with different physical uplink control channels, whereby the first secondary cell is deactivated, when all secondary cells defined for transmission of the at least one physical uplink control channel in the at least two groups are de-activated. associating at least one physical uplink control channel with a first secondary cell, wherein serving cells are defined to the user equipment in a mobile communications network, said serving cells comprising a primary cell and secondary cells, wherein the first secondary cell is not defined for transmission of a physical uplink control channel, and wherein second secondary cells are defined for transmission of the at least one physical uplink control channel associated with the first secondary cell; and de-activating the first secondary cell, when all the second secondary cells defined for transmission of the at least one physical uplink control channel associated with the first secondary cell are de-activated, wherein the first secondary cell is a part of any one of at least two groups of secondary cells associated with different physical uplink control channels, whereby the first secondary cell is deactivated, when all secondary cells defined for transmission of the at least one physical uplink control channel in the at least two groups are de-activated.
An isolated-nucleic acid molecule wherein said nucleic acid molecule is a miRNA, pre-miRNA or a DNA molecule encoding said pre-miRNA, which has a length of 18 to 26 nucleotides in the case of miRNA or 60-110 nucleotides in the case of pre-miRNA or its coding sequence, wherein: (a) the sequence of said nucleic acid molecule comprises a sequence encoding a miRNA selected from the group consisting of SEQ ID NO: 9024, 9023 and its corresponding ribonucleotide sequence, (b) the sequence of said nucleic acid molecule comprises a sequence encoding a pre-miRNA consisting of SEQ ID NO: 1862 and its corresponding ribonucleotide sequence, (c) the sequence of said nucleic acid molecule is at least 80% identical to the nucleic acid molecule of (a) or at least 70% identical to the nucleic acid molecule of (b). (a) the sequence of said nucleic acid molecule comprises a sequence encoding a miRNA selected from the group consisting of SEQ ID NO: 9024, 9023 and its corresponding ribonucleotide sequence, (b) the sequence of said nucleic acid molecule comprises a sequence encoding a pre-miRNA consisting of SEQ ID NO: 1862 and its corresponding ribonucleotide sequence, (c) the sequence of said nucleic acid molecule is at least 80% identical to the nucleic acid molecule of (a) or at least 70% identical to the nucleic acid molecule of (b).
A method for accessing a service subscription profile for use in a device comprising a memory, characterized in that, the memory storing data relating to at least one service subscription profile template, the at least one service subscription profile template including executable data, the method comprises the following steps: - a server sends to the device a first message including a request for creating or modifying at least one service subscription profile based upon a service subscription profile template; - the device creates or modifies a memory area while executing the executable data, the memory area being associated with a service subscription profile, as an on-board generated service subscription profile, by using the service subscription profile template; - the server sends to the device at least one second message including complementary data relating to the service subscription profile; and - the device stores within the created or modified memory area the complementary data relating to the service subscription profile, so as to complete the stored on-board generated service subscription profile. - a server sends to the device a first message including a request for creating or modifying at least one service subscription profile based upon a service subscription profile template; - the device creates or modifies a memory area while executing the executable data, the memory area being associated with a service subscription profile, as an on-board generated service subscription profile, by using the service subscription profile template; - the server sends to the device at least one second message including complementary data relating to the service subscription profile; and - the device stores within the created or modified memory area the complementary data relating to the service subscription profile, so as to complete the stored on-board generated service subscription profile.