mhurhangee/ep-ind-claims huggingface dataset:
A barrier laminate comprising at least one organic layer and at least one inorganic layer, wherein the inorganic layer is laminated on the organic layer, and wherein the organic layer is formed by curing a polymerizable composition comprising a (meth)acrylate having a cyclic carbon structure and having three or more (meth)acryloyloxy groups, represented by formula: wherein R 1 and R 2 each are H or an optionally substituted alkyl or aryl group, and R 1 and R 2 may be taken together to form a ring; R 3 and R 4 each are a substituent; m and n each indicate an integer of 0-5; when m is ≥ 2 the R 3 groups may be the same or different, and when n is ≥ 2 the R 4 groups may be the same or different; with the proviso that the total number of (meth)acryloyloxy groups in the compound is at least 3.
A reaction force output device comprising: a drive unit configured to drive a drive member to output a force in a direction opposite to an operating direction to an operated element operated by an operator; characterized in that it further comprises a control unit configured to determine whether or not a space is formed between the operated element and the drive member, and to control the drive unit to output a greater driving force when it is determined that the space is formed than when it is determined that the space is not formed. a drive unit configured to drive a drive member to output a force in a direction opposite to an operating direction to an operated element operated by an operator; characterized in that it further comprises a control unit configured to determine whether or not a space is formed between the operated element and the drive member, and to control the drive unit to output a greater driving force when it is determined that the space is formed than when it is determined that the space is not formed.
Insulating product comprising: - fibres of plant origin, - nodules or flocks of mineral wool comprising mineral fibres, and - bonding resin coating the fibres of plant origin and the nodules or flocks of mineral wool, the fibres of plant origin and the nodules or flocks of mineral wool being bonded together by the bonding resin, the ratio by weight of the nodules or flocks of mineral wool to the fibres of plant origin being between 85/15 and 20/80 and the percentage of bonding resin being between 3 and 20% of the total weight, preferably between 4 and 15% of the total weight. - fibres of plant origin, - nodules or flocks of mineral wool comprising mineral fibres, and - bonding resin coating the fibres of plant origin and the nodules or flocks of mineral wool,
A process for preparing an albumin preparation, wherein said process comprises the following steps in consecutive order: (a) treating an albumin-containing solution with an anion exchanger and a prefilter, (b) subjecting the albumin-containing solution to a step of filtrating with a virus-removing membrane having a pore-size in a range of from 10 to 70 nm, and (c) subjecting the albumin-containing solution to a step of heat treatment in a liquid state. (a) treating an albumin-containing solution with an anion exchanger and a prefilter, (b) subjecting the albumin-containing solution to a step of filtrating with a virus-removing membrane having a pore-size in a range of from 10 to 70 nm, and (c) subjecting the albumin-containing solution to a step of heat treatment in a liquid state.
A method of making a multi-layer pad for use in determining an analyte concentration, the method comprising the acts of: forming a first layer of the multi-layer pad by immersing a fabric, a porous membrane, or a paper material in a first solution including at least one enzyme, the first layer having a first surface and a second surface; removing the first layer from the first solution; drying the first layer such that the at least one enzyme is physically absorbed in the first layer; after drying the first layer, applying a second solution including a monomer mixture, or a polymer solution, to at least one of the first surface and the second surface of the first layer; and cross-linking the second solution to the first layer, the cross-linked second solution forming at least one outer polymeric layer, the cross-linking including (i) associating the second solution with calcium ions, (ii) initiating the cross-linking using UV irradiation, (iii) initiating the cross-linking using plasma exposure under inert gas, (iv) initiating the cross-linking using γ-ray irradiation, (v) thermally initiating the cross-linking, or (vi) initiating the cross-linking using an electron beam. forming a first layer of the multi-layer pad by immersing a fabric, a porous membrane, or a paper material in a first solution including at least one enzyme, the first layer having a first surface and a second surface; removing the first layer from the first solution; drying the first layer such that the at least one enzyme is physically absorbed in the first layer; after drying the first layer, applying a second solution including a monomer mixture, or a polymer solution, to at least one of the first surface and the second surface of the first layer; and cross-linking the second solution to the first layer, the cross-linked second solution forming at least one outer polymeric layer, the cross-linking including (i) associating the second solution with calcium ions, (ii) initiating the cross-linking using UV irradiation, (iii) initiating the cross-linking using plasma exposure under inert gas, (iv) initiating the cross-linking using γ-ray irradiation, (v) thermally initiating the cross-linking, or (vi) initiating the cross-linking using an electron beam.
A semiconductor device, comprising: an insulation substrate including a conductive pattern formed thereon; a terminal being an externally leading terminal soldered to the conductive pattern of the insulation substrate; a case comprising a top portion and a sidewall, the top portion having a top surface and a bottom surface, which faces the conductive pattern bearing surface of the insulating substrate, the case arranged such that a top surface of the terminal is exposed at the top surface of the top portion of the case; the case being provided with a partition plate formed inside the case, an opening in the sidewall of the case and in the partition plate, and an opening in the top portion of the case connected with the sidewall opening in the sidewall of the case; a nut glove comprising a top surface and a side surface, wherein a nut receiving part is formed at the top surface of the nut glove, the nut glove being configured to be inserted in the case through the opening in the sidewall of the case so as to lie under the top portion of the terminal, thereby fixing the terminal; the nut glove further comprising a first projection part formed on the side surface of the nut glove, and having tapers (10a, 10b) in a forward direction and a rearward direction of the insertion of the nut glove, respectively, wherein the rearward taper of the first projection part is configured to be in pressure contact with a sidewall surface of the partition plate of the case opposed to the first projection part. an insulation substrate including a conductive pattern formed thereon; a terminal being an externally leading terminal soldered to the conductive pattern of the insulation substrate; a case comprising a top portion and a sidewall, the top portion having a top surface and a bottom surface, which faces the conductive pattern bearing surface of the insulating substrate, the case arranged such that a top surface of the terminal is exposed at the top surface of the top portion of the case; the case being provided with a partition plate formed inside the case, an opening in the sidewall of the case and in the partition plate, and an opening in the top portion of the case connected with the sidewall opening in the sidewall of the case; a nut glove comprising a top surface and a side surface, wherein a nut receiving part is formed at the top surface of the nut glove, the nut glove being configured to be inserted in the case through the opening in the sidewall of the case so as to lie under the top portion of the terminal, thereby fixing the terminal; the nut glove further comprising a first projection part formed on the side surface of the nut glove, and having tapers (10a, 10b) in a forward direction and a rearward direction of the insertion of the nut glove, respectively, wherein the rearward taper of the first projection part is configured to be in pressure contact with a sidewall surface of the partition plate of the case opposed to the first projection part.
Apparatus for monitoring sleep of a sleeping subject using output radiofrequency signals transmitted to the subject during sleep and input radiofrequency signals received from the subject during sleep, the apparatus comprising: a phase shift determinator configured for determining a phase shift of the input radiofrequency signals relative to the output radiofrequency signals, to provide a processed signal, which comprises said phase shift; wherein the apparatus further comprises: a filtering unit configured for filtering said processed signal using a dynamically variable band pass filter characterized by a frequency band which is dynamically adapted in response to a change in a physiological condition of the subject, to thereby provide a filtered signal; and a cardiac output calculator configured for calculating cardiac output based on said phase shift; and a sleep apnea identification unit configured for identifying sleep apnea events based on said cardiac output. a phase shift determinator configured for determining a phase shift of the input radiofrequency signals relative to the output radiofrequency signals, to provide a processed signal, which comprises said phase shift; wherein the apparatus further comprises: a filtering unit configured for filtering said processed signal using a dynamically variable band pass filter characterized by a frequency band which is dynamically adapted in response to a change in a physiological condition of the subject, to thereby provide a filtered signal; and a cardiac output calculator configured for calculating cardiac output based on said phase shift; and a sleep apnea identification unit configured for identifying sleep apnea events based on said cardiac output. a filtering unit configured for filtering said processed signal using a dynamically variable band pass filter characterized by a frequency band which is dynamically adapted in response to a change in a physiological condition of the subject, to thereby provide a filtered signal; and a cardiac output calculator configured for calculating cardiac output based on said phase shift; and a sleep apnea identification unit configured for identifying sleep apnea events based on said cardiac output.
A method for managing a clinical testing apparatus that performs a test on a clinical sample by use of units (2b, 2c) comprised in the clinical testing apparatus; the method comprising: acquiring (S1, S3), from the clinical testing apparatus, values of at least one parameter that vary according to deterioration of a respective one of the units (2b, 2c), at a plurality of points of time; storing (S2-1, S2-4, S4-1, S4-4) the values of the at least one parameter and/or analysis results that are obtained by analyzing the values of the at least one parameter; and displaying the stored values of the at least one parameter and/or the stored analysis results in a time-series format, characterized in that: the clinical testing apparatus comprises a measuring unit and the units (2b, 2c) comprise an air pressure source for operating an air pressure device provided in the measuring unit; the at least one parameter comprises a first parameter which is the time from when the air pressure source starts to make an air pressure until the air pressure reaches a standard pressure required to operate the measuring unit; and the time-series format is a graph that indicates the change over time of the plurality of values of the first parameter and/or the plurality of analysis results to thereby provide information on the trend of deterioration of the air pressure source. acquiring (S1, S3), from the clinical testing apparatus, values of at least one parameter that vary according to deterioration of a respective one of the units (2b, 2c), at a plurality of points of time; storing (S2-1, S2-4, S4-1, S4-4) the values of the at least one parameter and/or analysis results that are obtained by analyzing the values of the at least one parameter; and displaying the stored values of the at least one parameter and/or the stored analysis results in a time-series format, the clinical testing apparatus comprises a measuring unit and the units (2b, 2c) comprise an air pressure source for operating an air pressure device provided in the measuring unit; the at least one parameter comprises a first parameter which is the time from when the air pressure source starts to make an air pressure until the air pressure reaches a standard pressure required to operate the measuring unit; and the time-series format is a graph that indicates the change over time of the plurality of values of the first parameter and/or the plurality of analysis results to thereby provide information on the trend of deterioration of the air pressure source.
A high intensity focused ultrasound (HIFU) system to treat tissue at a target treatment site, comprising: one or more ultrasound transducers that are configured to deliver two or more test signals to a tissue site and to deliver a HIFU signal to the target treatment site; a controller that is configured to control the one or more ultrasound transducers to deliver the HIFU signal to the target treatment site with a selectable treatment parameter; a receiver that is configured to detect signals from the tissue site created by the two or more test signals; and a processor (20, 300) programmed to analyze the detected signals to determine a response curve for the tissue site that indicates how a signal characteristic of the detected signals changes in response to the two or more test signals, wherein the processor is programmed to select a treatment parameter for the HIFU signal to be used in treating the target treatment site based on the response curve determined. one or more ultrasound transducers that are configured to deliver two or more test signals to a tissue site and to deliver a HIFU signal to the target treatment site; a controller that is configured to control the one or more ultrasound transducers to deliver the HIFU signal to the target treatment site with a selectable treatment parameter; a receiver that is configured to detect signals from the tissue site created by the two or more test signals; and a processor (20, 300) programmed to analyze the detected signals to determine a response curve for the tissue site that indicates how a signal characteristic of the detected signals changes in response to the two or more test signals, wherein the processor is programmed to select a treatment parameter for the HIFU signal to be used in treating the target treatment site based on the response curve determined.
A panel array antenna, comprising: an input layer comprising a waveguide network coupling an input feed on a first side thereof to a plurality of primary coupling cavities on a second side thereof; and an output layer on the second side of the input layer, the output layer comprising a monolithic layer, wherein the monolithic layer comprises an array of horn radiators, respective horn radiator inlet ports in communication with the horn radiators, and respective slot-shaped output ports in communication with the respective horn radiator inlet ports to couple the horn radiators to the primary coupling cavities, wherein the monolithic layer is configured to provide respective output signals from the horn radiators having a polarization orientation that is rotated by a desired polarization rotation angle relative to respective input signals received at the respective slot-shaped output ports coupled thereto; and the horn radiators, the respective horn radiator inlet ports, and/or the respective slot-shaped output ports coupled thereto of the monolithic layer comprise respective orientations that are rotated relative to one another by at least a portion of the desired polarization rotation angle. an input layer comprising a waveguide network coupling an input feed on a first side thereof to a plurality of primary coupling cavities on a second side thereof; and an output layer on the second side of the input layer, the output layer comprising a monolithic layer, wherein the monolithic layer comprises an array of horn radiators, respective horn radiator inlet ports in communication with the horn radiators, and respective slot-shaped output ports in communication with the respective horn radiator inlet ports to couple the horn radiators to the primary coupling cavities, wherein the monolithic layer is configured to provide respective output signals from the horn radiators having a polarization orientation that is rotated by a desired polarization rotation angle relative to respective input signals received at the respective slot-shaped output ports coupled thereto; and the horn radiators, the respective horn radiator inlet ports, and/or the respective slot-shaped output ports coupled thereto of the monolithic layer comprise respective orientations that are rotated relative to one another by at least a portion of the desired polarization rotation angle.
An actuator comprising: a piezoelectric element; a vibration plate that has the piezoelectric element joined thereto and is configured to vibrate in accordance with displacement of the piezoelectric element; and a support configured to support the vibration plate; wherein the vibration plate and the support are integrally molded; characterized in that an angle between the vibration plate and the support is acute when the actuator is not driven. a piezoelectric element; a vibration plate that has the piezoelectric element joined thereto and is configured to vibrate in accordance with displacement of the piezoelectric element; and a support configured to support the vibration plate; wherein the vibration plate and the support are integrally molded; characterized in that an angle between the vibration plate and the support is acute when the actuator is not driven.
A rubber composition, prepared from a masterbatch obtained by mixing rubber latex, microfibrillated plant fibers and a cationic polymer, wherein 0.01 to 5 parts by mass of the cationic polymer is added per 100 parts by mass of a rubber component of the rubber latex.
An ink composition comprising: (a) at least one film-forming elastomeric polymer, (b) at least one polyoxyethylene sorbitan ester, (c) at least one dye, (d) at least one pigment, and (e) water, wherein the film-forming elastomeric polymer (a) is acrylonitrile butadiene rubber and/or hydrogenated acrylonitrile butadiene rubber (HNBR), and wherein the polyoxyethylene sorbitan ester (b) is preferably a polyoxyethylene sorbitan fatty acid ester, and more preferably a polyoxyethylene sorbitan fatty acid ester with a chain of fatty acid in C 5 -C 25. (a) at least one film-forming elastomeric polymer, (b) at least one polyoxyethylene sorbitan ester, (c) at least one dye, (d) at least one pigment, and (e) water,
A pillar structure for a biochip, which forms a biochip for analyzing a sample cell, together with a well plate that receives a culture solution, comprising: a substrate which has a plate-shaped structure; and pillar members, each of which has one side detachably coupled to the substrate and the other side on which the sample cell is disposed, wherein the disposed sample cell on the pillar members is measured by a microscope through the pillar portion through which light penetrates, characterized in that each of the pillar members includes a coupling portion to be coupled to the substrate, the coupling portions are fitted with multiple fitting portions arranged on the substrate at predetermined intervals and each of the fitting portions on the substrate includes four fitting protrusions arranged at intervals around an outer circumferential surface of the coupling portion so that a range of the coupling portion, which is exposed to light, is prevented from being reduced after the pillar members are coupled to the substrate. a substrate which has a plate-shaped structure; and pillar members, each of which has one side detachably coupled to the substrate and the other side on which the sample cell is disposed, wherein the disposed sample cell on the pillar members is measured by a microscope through the pillar portion through which light penetrates, characterized in that each of the pillar members includes a coupling portion to be coupled to the substrate, the coupling portions are fitted with multiple fitting portions arranged on the substrate at predetermined intervals and each of the fitting portions on the substrate includes four fitting protrusions arranged at intervals around an outer circumferential surface of the coupling portion so that a range of the coupling portion, which is exposed to light, is prevented from being reduced after the pillar members are coupled to the substrate.
Cleaning device for performing cleaning work on a floor to be cleaned, having at least one cleaning element by which a cleaning movement for cleaning the substrate is able to be performed, and having a drive device which drives at least the cleaning movement of the at least one cleaning element, wherein provision is made of an actuating device by which the cleaning movement of the at least one cleaning element is able to be actuated, wherein the cleaning movement comprises a sweeping and/or wiping movement, characterized in that the cleaning movement able to be actuated by the actuating device is in the form of a cyclical cleaning movement, wherein each cycle of the cleaning movement comprises at least a positioning movement of the at least one cleaning element onto the substrate and the sweeping and/or wiping movement, which follows said positioning movement.
A near-eye display for displaying an image to a viewer, the display comprising: a laser module generating at least three laser spots; a laser driver controlling the laser module; a scan module which moves the laser spots within an image field; and a scan driver in communication with the scan module; wherein the laser driver provides a power modulation characterized by a baseline power level, a near-threshold power level below a threshold power level, and a lasing power level; and wherein a timing of the power modulation is synchronized with the scan driver; characterized in that the timing of the power modulation is determined by a convolution of an image pattern with one or more uncertainty ellipses characterizing a position uncertainty of the laser spots. a laser module generating at least three laser spots; a laser driver controlling the laser module; a scan module which moves the laser spots within an image field; and a scan driver in communication with the scan module; wherein the laser driver provides a power modulation characterized by a baseline power level, a near-threshold power level below a threshold power level, and a lasing power level; and wherein a timing of the power modulation is synchronized with the scan driver; characterized in that the timing of the power modulation is determined by a convolution of an image pattern with one or more uncertainty ellipses characterizing a position uncertainty of the laser spots.