mhurhangee/ep-ind-claims huggingface dataset:
A cell state acquisition apparatus for acquiring state signals of monitored cells, wherein the apparatus comprises an acquisition board assembly placed between adjacent cells connected in series, a first interface fixed to the bottom surface of an adjacent cell connected in series, a second interface fixed to the top of another adjacent cell connected in series, and a connecting seat that connects the first interface and the second interface; the first interface and the second interface are inserted oppositely into the connecting seat; the acquisition board assembly comprises a printed circuit board, a signal processing module mounted on the PCB, a communication module mounted on the PCB, and a fixed block matched and inserted in the first interface; the PCB has a connecting part that can be inserted into the first interface; the fixed block is mounted on the connecting part; the fixed block is provided with a signal acquisition module for acquisition of the cell state signals corresponding to the second interface.
An exhaust diffuser for a gas turbine engine that is mounted at an outlet of a gas turbine to eject exhaust gas to outside of the turbine and includes a hollow cylindrical internal diffuser guide and an external diffuser guide, the exhaust diffuser comprising: a plurality of struts disposed between the internal diffuser guide and the external diffuser guide to space the internal diffuser guide and the external diffuser guide at a predetermined distance from each other; and a plurality of vanes surrounding an outer side of the internal diffuser guide, wherein the plurality of vanes are formed in a ring shape surrounding the internal diffuser guide, wherein three or more struts are spaced at a predetermined angle from each other around the outer side of the internal diffuser guide, the vanes connect adjacent struts, and the vanes are arranged in parallel to the outer side of the internal diffuser guide, wherein the each of the plurality of vanes is mounted on the plurality of struts through a hinge unit, and a driving unit operating with the hinge unit of the vane through a link is disposed in the strut, characterized in that one or more guide projections extending in a flow direction of exhaust gas are formed on an outer side of the vanes, wherein the guide projection has a streamline structure continuing from the outer side of each vane when viewed in a longitudinal section. a plurality of struts disposed between the internal diffuser guide and the external diffuser guide to space the internal diffuser guide and the external diffuser guide at a predetermined distance from each other; and a plurality of vanes surrounding an outer side of the internal diffuser guide, wherein the plurality of vanes are formed in a ring shape surrounding the internal diffuser guide, wherein three or more struts are spaced at a predetermined angle from each other around the outer side of the internal diffuser guide, the vanes connect adjacent struts, and the vanes are arranged in parallel to the outer side of the internal diffuser guide, wherein the each of the plurality of vanes is mounted on the plurality of struts through a hinge unit, and a driving unit operating with the hinge unit of the vane through a link is disposed in the strut, characterized in that one or more guide projections extending in a flow direction of exhaust gas are formed on an outer side of the vanes, wherein the guide projection has a streamline structure continuing from the outer side of each vane when viewed in a longitudinal section.
A pharmaceutical composition for topical administration to a skin surface wherein said composition comprises: (i) 0.05 to 2.5 % (w/w) of danazol, (ii) 30 to 70 % (w/w) of ethanol, (iii) 0.01 to 4 % (w/w) of at least one penetration enhancer selected from isopropyl myristate or propylene glycol, (iv) 0.01 to 1.5 % (w/w) of at least one gelling agent selected from polyacrylic acids, cellulosics, or mixtures thereof, (v) 0 to 5 % (w/w) of at least one moisturizer, e.g., glycerine, (vi) q.s. 100 % (w/w) water as an aqueous vehicle. (i) 0.05 to 2.5 % (w/w) of danazol, (ii) 30 to 70 % (w/w) of ethanol, (iii) 0.01 to 4 % (w/w) of at least one penetration enhancer selected from isopropyl myristate or propylene glycol, (iv) 0.01 to 1.5 % (w/w) of at least one gelling agent selected from polyacrylic acids, cellulosics, or mixtures thereof, (v) 0 to 5 % (w/w) of at least one moisturizer, e.g., glycerine, (vi) q.s. 100 % (w/w) water as an aqueous vehicle.
Running set for use in an internal combustion engine, comprising at least one cylinder liner or an engine block with at least one integrated cylinder and at least one piston ring, wherein the ring defines an outer running face and the liner/the integrated cylinder (4, 4') defines an inner running face, the outer running face of the ring interacting slidingly with the inner running face of the liner/the integrated cylinder (4, 4'); the running face is characterised in that at least one part of the outer running face of the ring comprises a coating composed of a ceramic material and at least one part of the inner running face of the liner/the integrated cylinder (4, 4') comprises a proportion of less than 3% of a folded metal.
A method for providing treatment parameters for a dialysis treatment comprising the following steps: providing a predetermined machine-related dataset of machine-related treatment parameters, which are predetermined independently of the treatment of a specific patient (208, 301), providing a patient-related dataset of patient-related treatment parameters of a patient (209, 302) to be treated, which treatment parameters are predetermined independently of a dialysis machine or of a device type designated for the treatment, selection of a machine-related dataset for a specific dialysis treatment of a patient (214, 303), and using the machine-related dataset and the patient-related dataset to generate a treatment dataset for determining treatment parameters for the dialysis treatment (204, 304) to be carried out, further comprising: providing a plurality of machine-related datasets as a function of a respective machine type for a plurality of types of dialysis machines, determining the machine type of a dialysis machine designated for a specific treatment, and selection of the machine-related dataset as a function of the specific machine type, and wherein the treatment dataset comprises a control dataset for controlling a dialysis machine during the dialysis treatment. providing a predetermined machine-related dataset of machine-related treatment parameters, which are predetermined independently of the treatment of a specific patient (208, 301), providing a patient-related dataset of patient-related treatment parameters of a patient (209, 302) to be treated, which treatment parameters are predetermined independently of a dialysis machine or of a device type designated for the treatment, selection of a machine-related dataset for a specific dialysis treatment of a patient (214, 303), and using the machine-related dataset and the patient-related dataset to generate a treatment dataset for determining treatment parameters for the dialysis treatment (204, 304) to be carried out, further comprising: providing a plurality of machine-related datasets as a function of a respective machine type for a plurality of types of dialysis machines, determining the machine type of a dialysis machine designated for a specific treatment, and selection of the machine-related dataset as a function of the specific machine type, and wherein the treatment dataset comprises a control dataset for controlling a dialysis machine during the dialysis treatment.
An antenna feeder assembly of a multi-band antenna, comprising a first feeder supporting propagation of waves in a first frequency band and a second feeder supporting propagation of waves in a second frequency band lower than the first frequency band, wherein: the second feeder coaxially surrounds the first feeder; and the first feeder comprises a dielectric member, the dielectric member comprising a dielectric emitting section, a dielectric radiating section, and an inner cavity; wherein the dielectric emitting section includes a wall and sub-wavelength elements arranged along the longitudinal direction of the first feeder on or in an external surface of the wall, characterized in that the sub-wavelength element has a dielectric constant different than the dielectric constant of the dielectric emitting section; wherein the sub- wavelength element includes a hole piercing the wall in the radial direction. the second feeder coaxially surrounds the first feeder; and the first feeder comprises a dielectric member, the dielectric member comprising a dielectric emitting section, a dielectric radiating section, and an inner cavity; wherein the dielectric emitting section includes a wall and sub-wavelength elements arranged along the longitudinal direction of the first feeder on or in an external surface of the wall, characterized in that the sub-wavelength element has a dielectric constant different than the dielectric constant of the dielectric emitting section; wherein the sub- wavelength element includes a hole piercing the wall in the radial direction.
A hybrid power conversion system for an air conditioned transport vehicle comprising: a plurality of refrigeration components (52, 54, 56) for heating and/or cooling a refrigerated volume; a battery for storing electrical power to be provided to at least one of the plurality of refrigeration components; a plurality of supplemental power sources (68, 70, 76) for providing electrical power; and a power converter for converting a total available DC power to a total AC power, the total AC power provided to at least one of the plurality of refrigeration components; wherein the hybrid power conversion system does not include a refrigeration system engine and wherein the battery provides all the electrical power required for all operations of the at least one of the plurality of refrigeration components; the hybrid power conversion system being characterised by: a charger configured to combine the electrical power provided by the supplemental power sources and provide a combined DC output to the battery to provide the total available DC power for the refrigeration components. a plurality of refrigeration components (52, 54, 56) for heating and/or cooling a refrigerated volume; a battery for storing electrical power to be provided to at least one of the plurality of refrigeration components; a plurality of supplemental power sources (68, 70, 76) for providing electrical power; and a power converter for converting a total available DC power to a total AC power, the total AC power provided to at least one of the plurality of refrigeration components; wherein the hybrid power conversion system does not include a refrigeration system engine and wherein the battery provides all the electrical power required for all operations of the at least one of the plurality of refrigeration components; the hybrid power conversion system being characterised by: a charger configured to combine the electrical power provided by the supplemental power sources and provide a combined DC output to the battery to provide the total available DC power for the refrigeration components.
A system, comprising: a tracking workstation; an interventional tool comprising at least two acoustic sensors (20, 21); wherein the at least two acoustic sensors (20, 21) are spatially aligned relative to the interventional tool, wherein each acoustic sensor (20, 21) is structurally configured to output a composite acoustic sensing waveform (40, 41) derived from an acoustic sensing of an acoustic image plane, and wherein each composite acoustic sensing waveform (40, 41) includes an array of acoustic beam sensing waveforms (30, 31, 32); wherein the tracking workstation is structurally configured to track a position of the interventional tool relative to the acoustic image plane derived from a waveform profile analysis of the composite acoustic sensing waveforms (40, 41); and wherein the waveform profile analysis of the composite acoustic sensing waveforms (40, 41) by the tracking workstation includes: an estimation of an in-plane location of each acoustic sensor (20, 21) as a function of a profile identification of a primary acoustic beam sensing waveform (31, 32) of each composite acoustic sensing waveform (40, 41), wherein an amplitude of each primary acoustic beam sensing waveform (31, 32) is indicative of the in-plane location of a corresponding acoustic sensor (20, 21). a tracking workstation; wherein each acoustic sensor (20, 21) is structurally configured to output a composite acoustic sensing waveform (40, 41) derived from an acoustic sensing of an acoustic image plane, and wherein each composite acoustic sensing waveform (40, 41) includes an array of acoustic beam sensing waveforms (30, 31, 32); an estimation of an in-plane location of each acoustic sensor (20, 21) as a function of a profile identification of a primary acoustic beam sensing waveform (31, 32) of each composite acoustic sensing waveform (40, 41), wherein an amplitude of each primary acoustic beam sensing waveform (31, 32) is indicative of the in-plane location of a corresponding acoustic sensor (20, 21).
A system for pacing a heart, comprising: an electrostimulation circuit configured to generate His-bundle pacing, HBP, pulses to stimulate a His bundle of the heart; a cardiac event detector configured to sense a physiologic signal from a His-bundle region, and to detect a His-bundle activity from the sensed physiologic signal during a time period following an atrial activity; and a control circuit configured to control the electrostimulation circuit to deliver the HBP pulses if no His-bundle activity is detected within the time period following the atrial activity, and to withhold the HBP pulses if the His-bundle activity is detected within the time period following the atrial activity; characterized in that the cardiac event detector is configured to switch from a first sensing mode to a second sensing mode to detect the His-bundle activity in response to an indication of HBP, the second sensing mode having a lower sensitivity than the first sensing mode. an electrostimulation circuit configured to generate His-bundle pacing, HBP, pulses to stimulate a His bundle of the heart; a cardiac event detector configured to sense a physiologic signal from a His-bundle region, and to detect a His-bundle activity from the sensed physiologic signal during a time period following an atrial activity; and a control circuit configured to control the electrostimulation circuit to deliver the HBP pulses if no His-bundle activity is detected within the time period following the atrial activity, and to withhold the HBP pulses if the His-bundle activity is detected within the time period following the atrial activity; characterized in that the cardiac event detector is configured to switch from a first sensing mode to a second sensing mode to detect the His-bundle activity in response to an indication of HBP, the second sensing mode having a lower sensitivity than the first sensing mode.
A cell information transmission method performed by a base station in a wireless communication system, the cell information transmission method comprising: transmitting to at least one terminal, a first message including a system information block, the system information block including a neighbor cell list having at least one cell identifier, ID, and at least one index corresponding to each of the at least one cell ID; determining whether a transmission of cell information for a terminal of the at least one terminal is required based on a predetermined rule; and transmitting, to the terminal, a second message including at least one index corresponding to the cell information for the terminal based on the neighbor cell list via a physical downlink control channel, PDCCH, in case that the transmission of the cell information for the terminal is required. transmitting to at least one terminal, a first message including a system information block, the system information block including a neighbor cell list having at least one cell identifier, ID, and at least one index corresponding to each of the at least one cell ID; determining whether a transmission of cell information for a terminal of the at least one terminal is required based on a predetermined rule; and transmitting, to the terminal, a second message including at least one index corresponding to the cell information for the terminal based on the neighbor cell list via a physical downlink control channel, PDCCH, in case that the transmission of the cell information for the terminal is required.
A method for determining a contrast sensitivity threshold of eyes of a user, the method comprising the following steps: a) providing a dataset of track data, wherein the track data comprise data of eye movements, wherein the eye movements are stimulated by a stimulus which is designated for eliciting an optokinetic nystagmus in the eyes of the user, wherein the track data are related to a particular contrast and a particular spatial frequency of the stimulus; b) estimating at least one velocity component of the eye movement from the track data for the particular contrast and the particular spatial frequency of the stimulus; c) comparing the velocity component of the eye movement for the track data with a velocity threshold; and e) determining the contrast sensitivity threshold of the eyes of the user; characterized by d) further comparing a fraction of the track data which exceed the velocity threshold with a fractional threshold for the dataset, whereby the dataset which exceeds the fractional threshold is classified as eliciting the optokinetic nystagmus at the particular contrast of the stimulus, wherein the contrast sensitivity threshold of the eyes of the user is determined by applying both the velocity threshold and the fractional threshold. a) providing a dataset of track data, wherein the track data comprise data of eye movements, wherein the eye movements are stimulated by a stimulus which is designated for eliciting an optokinetic nystagmus in the eyes of the user, wherein the track data are related to a particular contrast and a particular spatial frequency of the stimulus; b) estimating at least one velocity component of the eye movement from the track data for the particular contrast and the particular spatial frequency of the stimulus; c) comparing the velocity component of the eye movement for the track data with a velocity threshold; and e) determining the contrast sensitivity threshold of the eyes of the user; d) further comparing a fraction of the track data which exceed the velocity threshold with a fractional threshold for the dataset, whereby the dataset which exceeds the fractional threshold is classified as eliciting the optokinetic nystagmus at the particular contrast of the stimulus, wherein the contrast sensitivity threshold of the eyes of the user is determined by applying both the velocity threshold and the fractional threshold.
A compound of Formula 1, or a pharmaceutically acceptable salt or isomer thereof: wherein X represents C or N, R1 represents optionally substituted alkyl, wherein the optional substituent of the optionally substituted alkyl is selected from at least one of halogen, cyano, hydroxyl, C 1 -C 6 -alkyloxy, oxo and sulfonyl unsubstituted or substituted by alkyl, R2 represents H, optionally substituted alkyl, halogen, CN, CF 3 or COCF 3, wherein the optional substituent of the optionally substituted alkyl is selected from at least one of halogen, cyano, hydroxyl, C 1 -C 6 -alkyloxy, oxo and sulfonyl unsubstituted or substituted by alkyl, W represents C, N, C-alkoxy, C-halogen or C-CN, Q represents CH 2 O or and S is selected from the following residues: wherein m and n represent independently 0, 1, 2 or 3, R3∼R10 represent independently H, alkyl, halogen, halogenoalkyl or alkoxyalkyl, R11 represents H, or and R12 represents OH, NH 2, wherein the alkyl is a straight-chain, branched-chain or cyclic saturated hydrocarbon radical. X represents C or N, R1 represents optionally substituted alkyl, wherein the optional substituent of the optionally substituted alkyl is selected from at least one of halogen, cyano, hydroxyl, C 1 -C 6 -alkyloxy, oxo and sulfonyl unsubstituted or substituted by alkyl, R2 represents H, optionally substituted alkyl, halogen, CN, CF 3 or COCF 3, wherein the optional substituent of the optionally substituted alkyl is selected from at least one of halogen, cyano, hydroxyl, C 1 -C 6 -alkyloxy, oxo and sulfonyl unsubstituted or substituted by alkyl, W represents C, N, C-alkoxy, C-halogen or C-CN, Q represents CH 2 O or and S is selected from the following residues: m and n represent independently 0, 1, 2 or 3, R3∼R10 represent independently H, alkyl, halogen, halogenoalkyl or alkoxyalkyl, R11 represents H, or and R12 represents OH, NH 2, wherein the alkyl is a straight-chain, branched-chain or cyclic saturated hydrocarbon radical.
A 3D printing device defined by a polar coordinate frame including an r-axis, a z-axis, and a rotational theta axis, the 3D printing device comprising: a base including a top surface; a rotary printing stage rotatably attached to the top surface of the base and configured to rotate between ends of the rotational theta axis; a pair of towers disposed along a pair of axes aligned with the z-axis; a rail disposed along the r-axis and slidably coupled to the pair of towers to slide along the z-axis; a print head slidably disposed on the rail; a master printing tool coupling component joined to the print head to form a first portion of a coupled tool assembly; characterized by a rotatable tool carousel rotatably coupled to the base, the rotatable tool carousel including a plurality of bays to removably house a respective plurality of printing tools, each printing tool including a printing tool body to form a second portion of the coupled tool assembly, the printing tool body configured to couple with the master printing tool coupling component (1120 to form the coupled tool assembly wherein the first portion of the coupled tool assembly is locked and coupled to the second portion of the coupled tool assembly such that the printing tool is removable from a respective bay (117A-117G) of the plurality of bays that houses the printing tool when the coupled tool assembly moves along the r-axis in a direction opposite from the rotatable tool carousel. a base including a top surface; a rotary printing stage rotatably attached to the top surface of the base and configured to rotate between ends of the rotational theta axis; a pair of towers disposed along a pair of axes aligned with the z-axis; a rail disposed along the r-axis and slidably coupled to the pair of towers to slide along the z-axis; a print head slidably disposed on the rail; a master printing tool coupling component joined to the print head to form a first portion of a coupled tool assembly; characterized by a rotatable tool carousel rotatably coupled to the base, the rotatable tool carousel including a plurality of bays to removably house a respective plurality of printing tools, each printing tool including a printing tool body to form a second portion of the coupled tool assembly, the printing tool body configured to couple with the master printing tool coupling component (1120 to form the coupled tool assembly wherein the first portion of the coupled tool assembly is locked and coupled to the second portion of the coupled tool assembly such that the printing tool is removable from a respective bay (117A-117G) of the plurality of bays that houses the printing tool when the coupled tool assembly moves along the r-axis in a direction opposite from the rotatable tool carousel.