mhurhangee/ep-ind-claims huggingface dataset:
A method for decoupling a capillary column from a gas chromatography-mass spectrometry (CG-MS) system, comprising: removing as a unit from the GC-MS system an ion source that is disposed, prior to removal, between a high vacuum end of a transfer line and a mass analyzer of the GC-MS system; the method characterized in that it further comprises: inserting in place of the ion source a column-sealing tool having a sealing element that is actuatable between a non-sealing position and a sealing position, the sealing element being maintained in the non-sealing position during inserting; actuating the sealing element from the non-sealing position to the sealing position to form a secondary vacuum seal with the high vacuum end of the transfer line; subsequent to establishing the secondary vacuum seal, breaking a primary vacuum seal between the capillary column and an end of the transfer line that is opposite the high vacuum end; and withdrawing the capillary column away from and out of the transfer line. removing as a unit from the GC-MS system an ion source that is disposed, prior to removal, between a high vacuum end of a transfer line and a mass analyzer of the GC-MS system; the method characterized in that it further comprises: inserting in place of the ion source a column-sealing tool having a sealing element that is actuatable between a non-sealing position and a sealing position, the sealing element being maintained in the non-sealing position during inserting; actuating the sealing element from the non-sealing position to the sealing position to form a secondary vacuum seal with the high vacuum end of the transfer line; subsequent to establishing the secondary vacuum seal, breaking a primary vacuum seal between the capillary column and an end of the transfer line that is opposite the high vacuum end; and withdrawing the capillary column away from and out of the transfer line. inserting in place of the ion source a column-sealing tool having a sealing element that is actuatable between a non-sealing position and a sealing position, the sealing element being maintained in the non-sealing position during inserting; actuating the sealing element from the non-sealing position to the sealing position to form a secondary vacuum seal with the high vacuum end of the transfer line; subsequent to establishing the secondary vacuum seal, breaking a primary vacuum seal between the capillary column and an end of the transfer line that is opposite the high vacuum end; and withdrawing the capillary column away from and out of the transfer line.
A method for modifying a polypropylene resin molded body, comprising a step of contacting a copolymer solution including a side chain crystalline block copolymer with a polypropylene resin molded body, characterized in that the step of contacting is performed at a temperature of the copolymer solution of 40 to 120°C, and the side chain crystalline block copolymer is a copolymer of a first monomer and a second monomer, the monomer is any monomer selected from the group consisting of (meth)acrylate, (meth)acrylamide, vinyl ether, vinyl ester, siloxane, α-olefin, and substituted styrene, having an alkane chain with a length of 8 or more carbon atoms in a side chain thereof, the monomer is a monomer having a functional group, and the side chain crystalline block copolymer is a block copolymer having a monomer -derived polymerized block, which is a polymerized portion of the monomer, and a monomer -derived polymerized block, which is a polymerized portion of the monomer. the step of contacting is performed at a temperature of the copolymer solution of 40 to 120°C, and the side chain crystalline block copolymer is a copolymer of a first monomer and a second monomer, the monomer is any monomer selected from the group consisting of (meth)acrylate, (meth)acrylamide, vinyl ether, vinyl ester, siloxane, α-olefin, and substituted styrene, having an alkane chain with a length of 8 or more carbon atoms in a side chain thereof, the monomer is a monomer having a functional group, and the side chain crystalline block copolymer is a block copolymer having a monomer -derived polymerized block, which is a polymerized portion of the monomer, and a monomer -derived polymerized block, which is a polymerized portion of the monomer.
A labelling machine comprising: a supply spool support for supporting a spool of label carrying web, a take up spool support for supporting a label take up spool adapted to take up a portion of web, and a first motive apparatus for transporting the label carrying web along a web path between the supply spool support to the take up spool support, and a controller configured to provide a control signal to the first motive apparatus, characterized in that the controller is further configured such that the controller provides a control signal to the first motive apparatus to accelerate the first motive apparatus, and therewith the label carrying web, between a first speed and a second speed by providing a first control signal to the first motive apparatus to command the first motive apparatus to accelerate to a predetermined first intermediate speed intermediate the first and second speeds for a first predetermined time period, then a second control signal to command the first motive apparatus to accelerate to a second predetermined intermediate speed intermediate the first intermediate speed and the second speed for a second predetermined time period, and then a third control signal to command the first motive apparatus to accelerate to the second speed for a third predetermined time period. a supply spool support for supporting a spool of label carrying web, a take up spool support for supporting a label take up spool adapted to take up a portion of web, and a first motive apparatus for transporting the label carrying web along a web path between the supply spool support to the take up spool support, and a controller configured to provide a control signal to the first motive apparatus, characterized in that the controller is further configured such that the controller provides a control signal to the first motive apparatus to accelerate the first motive apparatus, and therewith the label carrying web, between a first speed and a second speed by providing a first control signal to the first motive apparatus to command the first motive apparatus to accelerate to a predetermined first intermediate speed intermediate the first and second speeds for a first predetermined time period, then a second control signal to command the first motive apparatus to accelerate to a second predetermined intermediate speed intermediate the first intermediate speed and the second speed for a second predetermined time period, and then a third control signal to command the first motive apparatus to accelerate to the second speed for a third predetermined time period.
A system for processing fish of a single species and of different anatomic constitution having at least an end waste part, a body part and a transition (30,31) between said end waste part and said body part, said system comprising: a frame, defining a first end and a second end opposite said first end and including a fish loading area for receiving said fish at said first end and a fish unloading area at said second end, an optical measurement unit located at said first end monitoring at least part of said fish loading area for producing a digital representation of said fish, a grabbing unit mounted on said frame downstream in relation to said optical measurement unit between said first end and said second end for collecting said fish from said fish loading area and placing said fish on said fish unloading area, a processing unit for receiving said digital representation of said fish, determining said transition (30,31) between said end waste part and said body part of said fish and controlling said grabbing unit, and a separation arrangement located at or alternatively downstream in relation to said grabbing unit for separating said end waste part from said body part at said transition. a frame, defining a first end and a second end opposite said first end and including a fish loading area for receiving said fish at said first end and a fish unloading area at said second end, an optical measurement unit located at said first end monitoring at least part of said fish loading area for producing a digital representation of said fish, a grabbing unit mounted on said frame downstream in relation to said optical measurement unit between said first end and said second end for collecting said fish from said fish loading area and placing said fish on said fish unloading area, a processing unit for receiving said digital representation of said fish, determining said transition (30,31) between said end waste part and said body part of said fish and controlling said grabbing unit, and a separation arrangement located at or alternatively downstream in relation to said grabbing unit for separating said end waste part from said body part at said transition.
An acoustic emission sensor (102, 200, 302), comprising: a sensing element configured to sense an acoustic emission from an acoustic emission source; a pre-amplifier (112, 202, 300) configured to condition an acoustic emission signal generated based on the acoustic emission sensed by the sensing element; a demodulator configured to generate demodulated acoustic emission data based on combining the acoustic emission signal with a chirp signal, the demodulator including: a chirp generator configured to generate a chirp signal based on at least one of a start frequency, an end frequency, or a sweep time; a mixer configured to combine the chirp signal with the acoustic emission signal to generate mixed acoustic emission data; and a data extractor configured to filter the mixed acoustic emission data based on a filter bandwidth to generate filtered mixed acoustic emission data, and to convert the filtered mixed acoustic emission data to the demodulated acoustic emission data; and a transmitter configured to transmit the demodulated acoustic emission data to a data acquisition system, wherein the data extractor is configured to generate the demodulated acoustic emission data which is a low-resolution and high-bandwidth spectrum by sampling one or more measurements of the filtered mixed acoustic emission data in sync with the chirp signal. a sensing element configured to sense an acoustic emission from an acoustic emission source; a pre-amplifier (112, 202, 300) configured to condition an acoustic emission signal generated based on the acoustic emission sensed by the sensing element; a demodulator configured to generate demodulated acoustic emission data based on combining the acoustic emission signal with a chirp signal, the demodulator including: a chirp generator configured to generate a chirp signal based on at least one of a start frequency, an end frequency, or a sweep time; a mixer configured to combine the chirp signal with the acoustic emission signal to generate mixed acoustic emission data; and a data extractor configured to filter the mixed acoustic emission data based on a filter bandwidth to generate filtered mixed acoustic emission data, and to convert the filtered mixed acoustic emission data to the demodulated acoustic emission data; and a chirp generator configured to generate a chirp signal based on at least one of a start frequency, an end frequency, or a sweep time; a mixer configured to combine the chirp signal with the acoustic emission signal to generate mixed acoustic emission data; and a data extractor configured to filter the mixed acoustic emission data based on a filter bandwidth to generate filtered mixed acoustic emission data, and to convert the filtered mixed acoustic emission data to the demodulated acoustic emission data; and a transmitter configured to transmit the demodulated acoustic emission data to a data acquisition system, wherein the data extractor is configured to generate the demodulated acoustic emission data which is a low-resolution and high-bandwidth spectrum by sampling one or more measurements of the filtered mixed acoustic emission data in sync with the chirp signal.
A substrate for an electronic device in which an auxiliary wiring is formed on a first main surface side of a glass substrate including the first and a second main surface facing each other, said substrate comprising: an auxiliary wiring pattern formed on the first main surface of the glass substrate; a translucent glass layer formed on a surface of the glass substrate to cover the first main surface as well as the auxiliary wiring pattern, wherein the glass layer is a glass layer including a glass containing a base material having a first refractive index for at least one wavelength of light to be transmitted and scattering material dispersed in the base material and having a second refractive index different from that of the base material, and a translucent electrode formed on the scattering glass layer and having a third refractive index equal to or lower than the first refractive index, wherein the distribution of the scattering material in the glass layer decreases from the inside of the scattering glass layer toward the translucent electrode, wherein a density ρ 2 of the scattering material at a distance x=0.2 μm from the surface of the translucent electrode side of the scattering glass layer satisfies ρ 1 > ρ 2 with respect to the density ρ 1 of the scattering material in the central portion of the glass layer, wherein, in a portion of the glass layer on the auxiliary wiring pattern, through-holes exposing the auxiliary wiring pattern are formed. an auxiliary wiring pattern formed on the first main surface of the glass substrate; a translucent glass layer formed on a surface of the glass substrate to cover the first main surface as well as the auxiliary wiring pattern, wherein the glass layer is a glass layer including a glass containing a base material having a first refractive index for at least one wavelength of light to be transmitted and scattering material dispersed in the base material and having a second refractive index different from that of the base material, and a translucent electrode formed on the scattering glass layer and having a third refractive index equal to or lower than the first refractive index, wherein the distribution of the scattering material in the glass layer decreases from the inside of the scattering glass layer toward the translucent electrode, wherein a density ρ 2 of the scattering material at a distance x=0.2 μm from the surface of the translucent electrode side of the scattering glass layer satisfies ρ 1 > ρ 2 with respect to the density ρ 1 of the scattering material in the central portion of the glass layer, wherein, in a portion of the glass layer on the auxiliary wiring pattern, through-holes exposing the auxiliary wiring pattern are formed.
A radiation-irradiation device comprising: a leg unit that is capable of traveling on a device-placement surface; a radiation source unit that generates radiation; an arm unit on which the radiation source unit is mounted; a body unit to which the arm unit is connected and which is held by the leg unit and a detector holder that is adapted to support one edge portion of a radiation detector detecting the radiation and having the shape of a rectangular flat plate; characterized in that the body unit includes a flat surface on a side thereof opposite to a side to which the arm unit is connected; and the detector holder is mounted on the body unit so as to be movable between a first position at which the radiation detector is held to be substantially parallel to the flat surface of the body unit and a second position at which at least an opposite edge portion of the radiation detector opposite to the one edge portion of the radiation detector is held at a position away from the body unit; wherein the flat surface is inclined toward a side to which the arm unit is connected. a leg unit that is capable of traveling on a device-placement surface; a radiation source unit that generates radiation; an arm unit on which the radiation source unit is mounted; a body unit to which the arm unit is connected and which is held by the leg unit and a detector holder that is adapted to support one edge portion of a radiation detector detecting the radiation and having the shape of a rectangular flat plate;
A method for start-up and operation of a Fischer-Tropsch reactor comprising the steps of: (a) providing a reactor with a fixed bed of reduced Fischer-Tropsch catalyst that comprises cobalt as catalytically active metal; (b) supplying a gaseous feed stream comprising carbon monoxide and hydrogen to the reactor, wherein the gaseous feed stream comprises a nitrogen-containing compound other than molecular nitrogen in an initial concentration, wherein the initial concentration in the range of from 10 to 350 ppbv based on the volume of the gaseous feed stream; (c) converting carbon monoxide and hydrogen supplied with the gaseous feed stream to the reactor into hydrocarbons at a reaction temperature and at a set reactor productivity, whilst maintaining the initial concentration of the nitrogen-containing compound and maintaining the set reactor productivity during a first time period by adjusting the reaction temperature; (d) decreasing the concentration of the nitrogen-containing compound to a second concentration in the range of from 0 to 20 ppbv, wherein the second concentration is at least 5 ppbv below the initial concentration, preferably at least 20 ppbv below the initial concentration, and maintaining the reactor productivity by adjusting the reaction temperature. (a) providing a reactor with a fixed bed of reduced Fischer-Tropsch catalyst that comprises cobalt as catalytically active metal; (b) supplying a gaseous feed stream comprising carbon monoxide and hydrogen to the reactor, wherein the gaseous feed stream comprises a nitrogen-containing compound other than molecular nitrogen in an initial concentration, wherein the initial concentration in the range of from 10 to 350 ppbv based on the volume of the gaseous feed stream; (c) converting carbon monoxide and hydrogen supplied with the gaseous feed stream to the reactor into hydrocarbons at a reaction temperature and at a set reactor productivity, whilst maintaining the initial concentration of the nitrogen-containing compound and maintaining the set reactor productivity during a first time period by adjusting the reaction temperature; (d) decreasing the concentration of the nitrogen-containing compound to a second concentration in the range of from 0 to 20 ppbv, wherein the second concentration is at least 5 ppbv below the initial concentration, preferably at least 20 ppbv below the initial concentration, and maintaining the reactor productivity by adjusting the reaction temperature.
Actuation system of a fluid product distribution organ, said system comprising a pushbutton switch whose body has an assembly shaft along a supply tube of said organ and a delivery path of said product up to an outlet passage, said system comprising a ring in which said pushbutton switch is axially moveable on an actuation stroke of the distribution organ and a reversible locking device of said actuation by impediment of said movement, said system being characterised in that the locking device comprises an insert which is mounted in the ring with a possibility for relative rotation, said insert having means for rotationally fixed connection (34, 45) to the distribution organ and at least one distortable stop (34, 41), said locking device also comprising a structure that is rotationally fixed with the ring, said structure being arranged to, by rotation of said ring with regard to the insert, distort the stop (34, 41) between an active state in which said stop is arranged on the actuation stroke to interfere with the body by preventing actuation, and an inactive state in which said stop is moved aside from said stroke to allow actuation, the structure having a circumferential ramp on which the stop (34, 41) is arranged, said ramp extending at an angle between a minimum radial dimension (r, c) of the stop placement (34, 41) in one state and a maximum radial dimension (R, C) of the stop placement (34, 41) in the other state.
A pumping device for liquids comprising a tank for liquids, from which a feeding pipe of a pump with a solar panel draws, characterized in that the tank consists of a supporting frame with tubular uprights and upper and lower horizontal connection lengths, which supports and surrounds a flexible bag for containing liquids and has an upper connection crossbar of the upper horizontal lengths of the supporting frame, on which the pump with solar panel is mounted.
A conditioning arrangement (3; 3'; 3") for a vehicle comprising: - a plurality of heat exchangers, including a first and a second heat exchanger, adapted to be fed with respective first fluids, and arranged in series along an external flow path for a second fluid; - fluid processing means configured to force the second fluid flowing through the heat exchangers along the external flow path, such that heat exchanges can occur between each of the first fluids and the second fluid; - pumping means (22; 22'; 22", 24") configured to alter the amount of mass of the second fluid flowing between the first and the second heat exchanger; and - a control unit configured to control said pumping means (22; 22'; 22'', 24") to alter said amount of mass and said fluid processing means configured to adjust the processed flow rate of the second fluid based on the altered amount of masswherein said pumping means (22; 22') comprises at least a first pumping device arranged along the external flow path between the first and the second heat exchanger, the conditioning arrangement is characterized in that the heat exchangers include a third heat exchanger with the second heat exchanger arranged between the first and the third heat exchanger; wherein said pumping means (22; 22') comprises a second pumping device arranged along the external flow path between the second and the third heat exchanger; the control unit being configured to control the first pumping device in an independent manner with respect to the second pumping device. - a plurality of heat exchangers, including a first and a second heat exchanger, adapted to be fed with respective first fluids, and arranged in series along an external flow path for a second fluid; - fluid processing means configured to force the second fluid flowing through the heat exchangers along the external flow path, such that heat exchanges can occur between each of the first fluids and the second fluid; - pumping means (22; 22'; 22", 24") configured to alter the amount of mass of the second fluid flowing between the first and the second heat exchanger; and - a control unit configured to control said pumping means (22; 22'; 22'', 24") to alter said amount of mass and said fluid processing means configured to adjust the processed flow rate of the second fluid based on the altered amount of masswherein said pumping means (22; 22') comprises at least a first pumping device arranged along the external flow path between the first and the second heat exchanger, the conditioning arrangement is characterized in that the heat exchangers include a third heat exchanger with the second heat exchanger arranged between the first and the third heat exchanger; wherein said pumping means (22; 22') comprises a second pumping device arranged along the external flow path between the second and the third heat exchanger; the control unit being configured to control the first pumping device in an independent manner with respect to the second pumping device.