mhurhangee/ep-ind-claims huggingface dataset:
A rail vehicle having an underframe and an assembly (100; 200; 300; 400) mounted thereto, comprising - a container (110; 210; 310; 410) for fluids, - a protective element (120; 220; 320; 420) for the container (110; 210; 310; 410), which at least partially surrounds the container at a defined distance from the exterior of the container (110; 210; 310; 410), wherein the protective element (120; 220; 320; 420) completely surrounds the lower part of the container (110; 210; 310; 410) such that it is at least protected against mechanical loads from underneath, and - at least one container fastening element (140; 150; 240; 250; 350; 440; 450) surrounding and holding the container (110; 210; 310; 410) on its exterior, wherein the protective element (120; 220; 320; 420) is attached to the container fastening element (140; 150; 240; 250; 350; 440; 450). - a container (110; 210; 310; 410) for fluids, - a protective element (120; 220; 320; 420) for the container (110; 210; 310; 410), which at least partially surrounds the container at a defined distance from the exterior of the container (110; 210; 310; 410), wherein the protective element (120; 220; 320; 420) completely surrounds the lower part of the container (110; 210; 310; 410) such that it is at least protected against mechanical loads from underneath, and - at least one container fastening element (140; 150; 240; 250; 350; 440; 450) surrounding and holding the container (110; 210; 310; 410) on its exterior, wherein the protective element (120; 220; 320; 420) is attached to the container fastening element (140; 150; 240; 250; 350; 440; 450).
A camera module comprising: an image sensor; a first circuit board including: the image sensor, and at least one first connection pad disposed along a surrounding of the image sensor; a housing which includes an actuator provided with at least one lens and a second circuit board including at least one second connection pad, the actuator is fixed on the first circuit board by moving along an optical axis; and one or more elastic connectors disposed between the first circuit board and the second circuit board to electrically couple the second connection pad to the first connection pad; wherein each of the one or more elastic connectors is disposed in a compressed state between the at least one first and second connection pads (642, 632) according to a fixing structure between the first circuit board and the housing. an image sensor; a first circuit board including: the image sensor, and at least one first connection pad disposed along a surrounding of the image sensor; the image sensor, and at least one first connection pad disposed along a surrounding of the image sensor; a housing which includes an actuator provided with at least one lens and a second circuit board including at least one second connection pad, the actuator is fixed on the first circuit board by moving along an optical axis; and one or more elastic connectors disposed between the first circuit board and the second circuit board to electrically couple the second connection pad to the first connection pad; wherein each of the one or more elastic connectors is disposed in a compressed state between the at least one first and second connection pads (642, 632) according to a fixing structure between the first circuit board and the housing.
A data transmission method for a Time Division Duplex, TDD, system, comprising: a base station sending an uplink scheduling grant signaling to a terminal on a carrier m, and after the base station receives uplink data sent by the terminal through a Physical Uplink Shared Channel, PUSCH, on a carrier n, the base station sending an ACK/NACK feedback signaling corresponding to the PUSCH to the terminal on the carrier m; wherein, m ≠ n; characterized in that a timing relationship between a subframe by which the base station sends the uplink scheduling grant signaling and/or the ACK/NACK feedback signaling and a subframe where the PUSCH is located is identical with a Hybrid Automatic Repeat Request, HARQ, timing relationship corresponding to an uplink/downlink configuration of the carrier m or the carrier n; wherein, the timing relationship is an HARQ timing relationship corresponding to an uplink/downlink configuration used by a carrier with more uplink subframes or less downlink subframes between the carrier m and the carrier n. a base station sending an uplink scheduling grant signaling to a terminal on a carrier m, and after the base station receives uplink data sent by the terminal through a Physical Uplink Shared Channel, PUSCH, on a carrier n, the base station sending an ACK/NACK feedback signaling corresponding to the PUSCH to the terminal on the carrier m; wherein, m ≠ n; characterized in that a timing relationship between a subframe by which the base station sends the uplink scheduling grant signaling and/or the ACK/NACK feedback signaling and a subframe where the PUSCH is located is identical with a Hybrid Automatic Repeat Request, HARQ, timing relationship corresponding to an uplink/downlink configuration of the carrier m or the carrier n; wherein, the timing relationship is an HARQ timing relationship corresponding to an uplink/downlink configuration used by a carrier with more uplink subframes or less downlink subframes between the carrier m and the carrier n.
A method of controlling a wind turbine, the wind turbine comprising a wind direction sensor, a yawing system, and a control system for turning the wind turbine rotor relative to the wind, the method comprising: - pre-setting a number of intervals of a wind power parameter, the wind power parameter determined as one of a power, a torque, or a blade load of the wind turbine; - obtaining at time intervals a data set comprising a direction of the wind relative to the wind turbine as measured by the wind direction sensor and a wind power parameter; - obtaining over time a group of data sets for each wind power parameter interval; - determining for each wind power parameter interval a statistical representation of the wind power parameter as a function of the relative wind direction based on the group of data sets for that interval; wherein the statistical representations are determined independently of the wind speed; - estimating for each wind power parameter interval and each statistical representation a wind direction offset of that interval, the wind direction offset corresponding to the relative wind direction where the wind power parameter attains a peak value; - adjusting the relative wind direction as a function of the wind direction offset of the different wind power parameter intervals; - determining a control parameter of the wind turbine as a function of the adjusted relative wind direction; and - controlling the wind turbine according to the control parameter. - pre-setting a number of intervals of a wind power parameter, the wind power parameter determined as one of a power, a torque, or a blade load of the wind turbine; - obtaining at time intervals a data set comprising a direction of the wind relative to the wind turbine as measured by the wind direction sensor and a wind power parameter; - obtaining over time a group of data sets for each wind power parameter interval; - determining for each wind power parameter interval a statistical representation of the wind power parameter as a function of the relative wind direction based on the group of data sets for that interval; wherein the statistical representations are determined independently of the wind speed; - estimating for each wind power parameter interval and each statistical representation a wind direction offset of that interval, the wind direction offset corresponding to the relative wind direction where the wind power parameter attains a peak value; - adjusting the relative wind direction as a function of the wind direction offset of the different wind power parameter intervals; - determining a control parameter of the wind turbine as a function of the adjusted relative wind direction; and - controlling the wind turbine according to the control parameter.
A method for determining symbol type for a plurality of extended symbols in a wireless communication system, the method performed by a user equipment, UE, and comprising: receiving, from a network, slot format information informing a symbol type for a plurality of normal symbols, wherein each of the plurality of normal symbols comprises a normal cyclic prefix, CP, characterized by, determining the symbol type for the plurality of extended symbols, wherein each of the plurality of extended symbols comprises an extended CP, wherein a symbol type of an extended symbol among the plurality of extended symbols is determined based on two normal symbols overlapping with the extended symbol in a time domain among the plurality of normal symbols, wherein a first subcarrier spacing related to the plurality of normal symbols is as same as a second subcarrier spacing related to the plurality of extended symbols, wherein based on the plurality of normal symbols being arranged within a specific time duration, the plurality of extended symbols is arranged within the specific time duration, and wherein based on a symbol type of one normal symbol among the two normal symbol being a downlink symbol and based on a symbol type of a remaining normal symbol among the two normal symbols being an uplink symbol, the symbol type of the extended symbol is determined as a flexible symbol. receiving, from a network, slot format information informing a symbol type for a plurality of normal symbols, wherein each of the plurality of normal symbols comprises a normal cyclic prefix, CP, characterized by, determining the symbol type for the plurality of extended symbols, wherein each of the plurality of extended symbols comprises an extended CP, wherein a symbol type of an extended symbol among the plurality of extended symbols is determined based on two normal symbols overlapping with the extended symbol in a time domain among the plurality of normal symbols, wherein a first subcarrier spacing related to the plurality of normal symbols is as same as a second subcarrier spacing related to the plurality of extended symbols, wherein based on the plurality of normal symbols being arranged within a specific time duration, the plurality of extended symbols is arranged within the specific time duration, and wherein based on a symbol type of one normal symbol among the two normal symbol being a downlink symbol and based on a symbol type of a remaining normal symbol among the two normal symbols being an uplink symbol, the symbol type of the extended symbol is determined as a flexible symbol.
A slim-profile patch-pump drug delivery device comprising a substantially cylindrical drug-reservoir assembly, said substantially cylindrical drug-reservoir assembly comprising: ❖ a rigid housing; ❖ a collapsible semi-flexible drug reservoir chamber located within the rigid housing, consisting of a flexible upper wall (1-30, 2-30 or 3-20), a rigid base wall (1-10, 2-20, 3-40 or 4-60) and a joint region between said flexible upper wall (1-30, 2-30 or 3-20) and said rigid base wall (1-10, 2-20, 3-40 or 4-60), wherein said drug reservoir chamber has a height of about 1-5mm; ❖ a rigid constraining ring, which constraining ring is located proximal to and substantially surrounds the outer boundaries of the flexible upper wall (1-30, 2-30 or 3-20) of said collapsible semi-flexible drug reservoir chamber within said rigid housing; ❖ a drug administration unit in fluid communication with said semi-flexible drug reservoir chamber; and ❖ a displacement-generating actuator, located proximally to said semi-flexible drug reservoir chamber within said rigid housing; whereby displacement generated by said actuator proximally or operationally connected to said semi-flexible drug reservoir chamber causes said flexible wall (1-30, 2-30 or 3-20) to collapse, wherein said rigid constraining ring constrains said flexible wall (1-30, 2-30 or 3-20) to fold inwards against itself as it collapses against the base of said drug reservoir chamber within the constraints of said rigid constraining ring surrounding the circumference of said flexible wall (1-30, 2-30 or 3-20), which further causes substantially expelling contents of said drug reservoir chamber toward said drug administration unit thereby delivering said drug from said drug delivery device. ❖ a rigid housing; ❖ a collapsible semi-flexible drug reservoir chamber located within the rigid housing, consisting of a flexible upper wall (1-30, 2-30 or 3-20), a rigid base wall (1-10, 2-20, 3-40 or 4-60) and a joint region between said flexible upper wall (1-30, 2-30 or 3-20) and said rigid base wall (1-10, 2-20, 3-40 or 4-60), wherein said drug reservoir chamber has a height of about 1-5mm; ❖ a rigid constraining ring, which constraining ring is located proximal to and substantially surrounds the outer boundaries of the flexible upper wall (1-30, 2-30 or 3-20) of said collapsible semi-flexible drug reservoir chamber within said rigid housing; ❖ a drug administration unit in fluid communication with said semi-flexible drug reservoir chamber; and ❖ a displacement-generating actuator, located proximally to said semi-flexible drug reservoir chamber within said rigid housing;
Apparatus, comprising: a probe having a proximal end and a distal end, the probe being configured to be inserted into an organ of a human patient and defining a probe axis; at least two conductors positioned on the probe at the distal end; at least two flexible conductive splines, each conductive spline having a first termination and a second termination, the first terminations being electrically connected together at a region on the probe axis beyond the distal end, each second termination being electrically connected to a respective one of the conductors, the splines being configured to bend into respective arcuate forms that encompass a volume; and a processor configured to receive voltages induced on the splines via the conductors and to calculate a position and orientation of the volume in response to the received voltages. a probe having a proximal end and a distal end, the probe being configured to be inserted into an organ of a human patient and defining a probe axis; at least two conductors positioned on the probe at the distal end; at least two flexible conductive splines, each conductive spline having a first termination and a second termination, the first terminations being electrically connected together at a region on the probe axis beyond the distal end, each second termination being electrically connected to a respective one of the conductors, the splines being configured to bend into respective arcuate forms that encompass a volume; and a processor configured to receive voltages induced on the splines via the conductors and to calculate a position and orientation of the volume in response to the received voltages.
A method of dispensing a specified volume (V tot) of liquid using a pump (112; 132; 152) comprising a magnetisable pumping member (110; 130; 150), which is displaceable under the action of an electromagnet (111; 131; 151) energisable by a portable voltage source (113; 133; 153), the method comprising the steps of: (i) defining a total charge amount (Q tot) corresponding to the specified volume of liquid; (ii) energising the electromagnet by connecting it to the voltage source during a pulse; (iii) performing at least one current measurement (I m,n) during the pulse and estimating, based thereon, the charge amount supplied (Q m); and (iv) repeating steps (ii) and (iii) until the total charge amount has been supplied. (i) defining a total charge amount (Q tot) corresponding to the specified volume of liquid; (ii) energising the electromagnet by connecting it to the voltage source during a pulse; (iii) performing at least one current measurement (I m,n) during the pulse and estimating, based thereon, the charge amount supplied (Q m); and (iv) repeating steps (ii) and (iii) until the total charge amount has been supplied.
Spinning unit of an air-jet spinning machine for the spinning of a fiber composite for a yarn, with a pair of delivery rollers and a spinning nozzle, which has a housing, a yarn formation element and a fiber guide element with a beginning turned towards the pair of delivery rollers and an end turned away from the pair of delivery rollers, whereas the fiber composite is fed to the spinning nozzle with the pair of delivery rollers, and is introduced into the spinning nozzle through the fiber guide element, and subsequently a yarn is formed from the fiber composite through the yarn formation element, characterized in that a tool is provided between the pair of delivery rollers and the end of the fiber guide element for feeding an additive to the fiber composite in the area between a clamping point of the pair of delivery rollers and the end of the fiber guide element.
A polarization multiplexing optical transmission circuit, comprising: a first optical power splitter for branching an optical power of continuous light outputted from a light source; a first polarization optical modulation circuit in a first path having a higher loss than a second path, and_connected to a first_output of the first optical power splitter; a second optical power splitter connected to a second_output of the first optical power splitter; and a second polarization optical modulation circuit in the second path connected to a first output of the second optical power splitter, wherein each of the first and second polarization optical modulation circuits is configured to modulate a polarization component of the continuous light based on a transmission electric signal; characterized in that each of the first and second optical power splitters (102, 103) is connected in an asymmetric manner to the respective one of the first and second polarization optical modulation circuits (104, 105). a first optical power splitter for branching an optical power of continuous light outputted from a light source; a first polarization optical modulation circuit in a first path having a higher loss than a second path, and_connected to a first_output of the first optical power splitter; a second optical power splitter connected to a second_output of the first optical power splitter; and a second polarization optical modulation circuit in the second path connected to a first output of the second optical power splitter, wherein each of the first and second polarization optical modulation circuits is configured to modulate a polarization component of the continuous light based on a transmission electric signal; characterized in that each of the first and second optical power splitters (102, 103) is connected in an asymmetric manner to the respective one of the first and second polarization optical modulation circuits (104, 105).
A device for notching, at an interval of a unit electrode, a continuous electrode sheet in which an electrode active material is applied to one or both surfaces thereof, to form a plurality of unit electrodes from the electrode sheet, the device comprising a press for pressing notches (11, 12) and a drawing member; and wherein the press is configured to repeatedly move backwards together with the electrode sheet according to the position of the continuously transferred electrode sheet and then return to the original position in a process of pressing notches (11, 12) on the top and the bottom of the electrode sheet; and the drawing member is arranged at the rear of the press based on a feed direction of the electrode sheet, the drawing member drawing and transporting the electrode sheet by one pitch, a size corresponding to the unit electrode according to an operation of the press, the device being characterized in that the drawing member comprises two or more grippers (30b, 30c) to draw the electrode sheet by gripping, and when one of the grippers draws and transports the electrode sheet, the remaining gripper or grippers move to a position for drawing.
A method for detecting a target nucleic acid, the method comprising: a step of preparing a solid-phase body provided with a detection probe having a predetermined nucleotide sequence; a step of preparing a signaling target nucleic acid having a signal generating part for detecting the target nucleic acid; a step of bringing the signaling target nucleic acid into contact with the detection probe and an oligonucleotide being a mediator provided with a first site that hybridizes specifically with the target nucleic acid and a second site (preferably 20 to 50 nucleotides or more preferably 20 to 25 nucleotides in length) that hybridizes specifically with a part having the predetermined nucleotide sequence of the detection probe in such a way that a hybridization product thereof can be formed, wherein the step of bringing the signaling target nucleic acid into contact with the detection probe and the mediator is a step of using chromatography which uses the solid-phase body; and a step of obtaining data based on the signal generating part of the signaling target nucleic acid on the solid-phase body wherein the step of preparing the signaling target nucleic acid is a step of obtaining the signaling target nucleic acid by a DNA fragment amplification method using a DNA polymerase on a nucleic acid sample that may contain the target nucleic acid, and wherein the first site is a hybridization site that hybridizes specifically with the amplified region of the signaling target nucleic acid. a step of preparing a solid-phase body provided with a detection probe having a predetermined nucleotide sequence; a step of preparing a signaling target nucleic acid having a signal generating part for detecting the target nucleic acid; a step of bringing the signaling target nucleic acid into contact with the detection probe and an oligonucleotide being a mediator provided with a first site that hybridizes specifically with the target nucleic acid and a second site (preferably 20 to 50 nucleotides or more preferably 20 to 25 nucleotides in length) that hybridizes specifically with a part having the predetermined nucleotide sequence of the detection probe in such a way that a hybridization product thereof can be formed, wherein the step of bringing the signaling target nucleic acid into contact with the detection probe and the mediator is a step of using chromatography which uses the solid-phase body; and a step of obtaining data based on the signal generating part of the signaling target nucleic acid on the solid-phase body wherein the step of preparing the signaling target nucleic acid is a step of obtaining the signaling target nucleic acid by a DNA fragment amplification method using a DNA polymerase on a nucleic acid sample that may contain the target nucleic acid, and wherein the first site is a hybridization site that hybridizes specifically with the amplified region of the signaling target nucleic acid.