mhurhangee/patent-ind-claim-en huggingface dataset:
Method for manufacturing a heat receiver tube for absorbing solar energy and for transferring absorbed solar energy to a heat transfer fluid which can be located inside of at least one core tube of the heat receiver tube , wherein - the core tube comprises a core tube surface with at least one solar energy absorptive coating for absorbing solar radiation ; - the core tube is enveloped by at least one enveloping tube ; - the enveloping tube comprises at least one enveloping tube wall which is at least partly transparent for the solar radiation ; - the enveloping tube wall comprises at least one inner enveloping tube surface ; - the core tube and the enveloping tube are coaxially arranged to each other such that an inner heat receiver tube space is formed which is bordered by the core tube surface and the inner enveloping tube surface ; and - the heat receiver tube comprises at least one inlet port for pouring in of at least one inert gas into the inner heat receiver tube space ; wherein the method comprises following steps: a) Providing of at least one precursor tube of the heat receiver tube ; b) Arranging of the inlet port at the precursor tube of the heat receiver tube; and c) Pouring in of the inert gas into the inner heat receiver tube space through the inlet port ; whereby - an inert gas is used which is at least one noble gas which is selected from the group consisting of Krypton and Xenon; and - a partial pressure of the inert gas in the inner heat receiver tube space results which is selected from the range between 5 mbar and 300 mbar; characterized in that - the arranging of the inlet port comprises a drilling of a hole into the enveloping tube wall; and - the drilling comprises a laser drilling. - the core tube comprises a core tube surface with at least one solar energy absorptive coating for absorbing solar radiation ; - the core tube is enveloped by at least one enveloping tube ; - the enveloping tube comprises at least one enveloping tube wall which is at least partly transparent for the solar radiation ; - the enveloping tube wall comprises at least one inner enveloping tube surface ; - the core tube and the enveloping tube are coaxially arranged to each other such that an inner heat receiver tube space is formed which is bordered by the core tube surface and the inner enveloping tube surface ; and - the heat receiver tube comprises at least one inlet port for pouring in of at least one inert gas into the inner heat receiver tube space ; a) Providing of at least one precursor tube of the heat receiver tube ; b) Arranging of the inlet port at the precursor tube of the heat receiver tube; and c) Pouring in of the inert gas into the inner heat receiver tube space through the inlet port ; - an inert gas is used which is at least one noble gas which is selected from the group consisting of Krypton and Xenon; and - a partial pressure of the inert gas in the inner heat receiver tube space results which is selected from the range between 5 mbar and 300 mbar; - the arranging of the inlet port comprises a drilling of a hole into the enveloping tube wall; and - the drilling comprises a laser drilling.
A deodorant composition comprising ethylhexylglycerol, triethyl citrate and BHT, wherein the ratio of ethylhexylglycerol to triethyl citrate is from 1:6 to 1:1 by weight and wherein the ratio of BHT to the sum of ethylhexylglycerol and triethyl citrate is from 1:40 to 1:5 by weight.
A terminal antenna, comprising a mainboard , a feedpoint disposed on the mainboard , a metal housing , an adjustable apparatus, and at least two adjustable ground points comprising a first adjustable ground point and a second adjustable ground point , wherein the mainboard is located on an inner side of the metal housing , the metal housing is electrically connected to the mainboard , and a slot is disposed in the metal housing ; the feedpoint and the at least two adjustable ground points each are disposed on a part of the mainboard facing the slot , wherein the feedpoint is located between the first adjustable ground point and the second adjustable ground point ; and the first adjustable ground point , and the second adjustable ground point each are electrically connected to a ground of the mainboard by using the adjustable apparatus, and wherein the feedpoint is electrically connected to a feeding circuit on the mainboard , the feeding circuit is configured to process a transmit signal generated by a transmitter of a terminal on which the terminal antenna is located, and provide the processed transmit signal to the feedpoint ; and the adjustable apparatus is configured to control whether each adjustable ground point is grounded so that signals with a same frequency can be radiated from a first end of the slot and a second end of the slot . the mainboard is located on an inner side of the metal housing , the metal housing is electrically connected to the mainboard , and a slot is disposed in the metal housing ; the feedpoint and the at least two adjustable ground points each are disposed on a part of the mainboard facing the slot , wherein the feedpoint is located between the first adjustable ground point and the second adjustable ground point ; and the first adjustable ground point , and the second adjustable ground point each are electrically connected to a ground of the mainboard by using the adjustable apparatus, and wherein the feedpoint is electrically connected to a feeding circuit on the mainboard , the feeding circuit is configured to process a transmit signal generated by a transmitter of a terminal on which the terminal antenna is located, and provide the processed transmit signal to the feedpoint ; and the adjustable apparatus is configured to control whether each adjustable ground point is grounded so that signals with a same frequency can be radiated from a first end of the slot and a second end of the slot .
Probe body intended for installation in a borehole as a geothermal probe, the probe body comprising four heat transfer fluid tubes , through which heat transfer fluid can flow, and in each case two of the heat transfer fluid tubes being mechanically interconnected via one probe base part in each case, and the heat transfer fluid tubes mechanically interconnected by means of the probe base part being fluidically interconnected in the probe base part by means of a connection line , the heat transfer fluid tubes of the probe body being split into two separate tube coils , and each of the tube coils being formed by two heat transfer fluid tubes wound in unison and the two heat transfer fluid tubes of the relevant tube coil being mechanically interconnected via one of the probe base parts in each case, it being possible to assemble the four heat transfer fluid tubes into a probe body by bringing together the probe base parts to form a probe base , characterised in that the probe base parts can be pushed into a connecting body of the probe base in order to bring them together and can be secured in said connecting body by means of a single-use latching connection device that can no longer be removed without being destroyed, and an additional weight or a series of additional weights can be fastened onto the side of the connection body that is remote from the heat transfer fluid tubes by means of a single-use latching connection device that can no longer be removed without being destroyed.
A microscope comprising: a microscope body ; an objective assembly comprising an objective lens ; an objective assembly mount configured to separably attach the objective assembly to the microscope body ; and an orientation detection circuit configured to indicate when a relative orientation between the microscope body and the objective assembly differs from a predetermined relative orientation ; characterized in that the microscope further comprises a levelling mechanism that uses gravity to support the objective assembly in the predetermined relative orientation , wherein the levelling mechanism comprises a 3-point kinematic mounting structure. a microscope body ; an objective assembly comprising an objective lens ; an objective assembly mount configured to separably attach the objective assembly to the microscope body ; and an orientation detection circuit configured to indicate when a relative orientation between the microscope body and the objective assembly differs from a predetermined relative orientation ; characterized in that the microscope further comprises a levelling mechanism that uses gravity to support the objective assembly in the predetermined relative orientation , wherein the levelling mechanism comprises a 3-point kinematic mounting structure.
A decorative sheet for an automobile interior comprising: a substrate layer; a heat sealing layer that is provided on a side of a front surface of the substrate layer; a pattern layer that is provided on a side of a front surface of the heat sealing layer; a transparent film layer that is provided on a side of a front surface of the pattern layer; a surface protection layer that is provided on a side of a front surface of the transparent film layer; wherein a basis weight of the heat sealing layer is 30% or more and less than 150% relative to a basis weight of the pattern layer. a substrate layer; a heat sealing layer that is provided on a side of a front surface of the substrate layer; a pattern layer that is provided on a side of a front surface of the heat sealing layer; a transparent film layer that is provided on a side of a front surface of the pattern layer; a surface protection layer that is provided on a side of a front surface of the transparent film layer; wherein a basis weight of the heat sealing layer is 30% or more and less than 150% relative to a basis weight of the pattern layer.
A method for producing a soft magnetic material, comprising: preparing an alloy having a composition represented by the following Compositional Formula 1 or Compositional Formula 2 and containing 50% by volume or more of an amorphous phase, and heating the alloy at a rate of temperature rise of 10°C/sec or more to the crystallization starting temperature or higher and holding for 0 to 80 seconds at a temperature equal to or higher than the crystallization starting temperature and lower than the temperature at which Fe-B compounds start to form; wherein, the Compositional Formula 1 is Fe 100-x-y B x M y , M represents at least one element selected from Nb, Mo, Ta, W, Ni, Co and Sn, and x and y are in atomic percent (at%) and satisfy the relational expressions of 10≤x≤16 and 0.2≤y≤8, and the Compositional Formula 2 is Fe 100-a-b-c B a Cu b M' c , M' represents at least one element selected from Nb, Mo, Ta, W, Ni and Co, and a, b and c are in atomic percent (at%) and satisfy the relational expressions 10≤a≤16, 0<b≤2 and 0.2≤c≤8. preparing an alloy having a composition represented by the following Compositional Formula 1 or Compositional Formula 2 and containing 50% by volume or more of an amorphous phase, and heating the alloy at a rate of temperature rise of 10°C/sec or more to the crystallization starting temperature or higher and holding for 0 to 80 seconds at a temperature equal to or higher than the crystallization starting temperature and lower than the temperature at which Fe-B compounds start to form; wherein, the Compositional Formula 1 is Fe 100-x-y B x M y , M represents at least one element selected from Nb, Mo, Ta, W, Ni, Co and Sn, and x and y are in atomic percent (at%) and satisfy the relational expressions of 10≤x≤16 and 0.2≤y≤8, and the Compositional Formula 2 is Fe 100-a-b-c B a Cu b M' c , M' represents at least one element selected from Nb, Mo, Ta, W, Ni and Co, and a, b and c are in atomic percent (at%) and satisfy the relational expressions 10≤a≤16, 0<b≤2 and 0.2≤c≤8.
A luminometer for detecting chemo-luminescent light generated by the reaction of a light-generating reagent and an assay reaction mixture for use with a reaction vessel having an open top end and a bottom end, the luminometer comprising: a first portion having a first cavity with a first cavity opening sized to mate with the open end of the reaction vessel; a second portion , hingeably coupled to the first portion , and having a second cavity with a second cavity opening sized to enclose the bottom end of the reaction vessel; and a plurality of fiber optic bundles , each having a first end, a second end, and a running length therebetween, the first ends of each of the fiber optic bundles optically coupled to the second cavity and disposed around a perimeter and a bottom of the second cavity for collecting light generated by the reaction from about an entire perimeter and the bottom of the reaction vessel , wherein the fiber optic bundles disposed around the perimeter and bottom of the second cavity form two or more groups, each group coupled to a respective photomultiplier tube, each photomultiplier tube including an optical filter passing collected light at a different predetermined wavelength or range of wavelengths, wherein each of the first and second portions are configured to block ambient light from the first and second cavities, respectively, when the luminometer is in a closed configuration, and a light-generating reagent conduit integrated into the first portion for dispensing a desired volume of light-generating reagent into a reaction cuvette once the luminometer is in the closed position. a first portion having a first cavity with a first cavity opening sized to mate with the open end of the reaction vessel; a second portion , hingeably coupled to the first portion , and having a second cavity with a second cavity opening sized to enclose the bottom end of the reaction vessel; and a plurality of fiber optic bundles , each having a first end, a second end, and a running length therebetween, the first ends of each of the fiber optic bundles optically coupled to the second cavity and disposed around a perimeter and a bottom of the second cavity for collecting light generated by the reaction from about an entire perimeter and the bottom of the reaction vessel , wherein the fiber optic bundles disposed around the perimeter and bottom of the second cavity form two or more groups, each group coupled to a respective photomultiplier tube, each photomultiplier tube including an optical filter passing collected light at a different predetermined wavelength or range of wavelengths, wherein each of the first and second portions are configured to block ambient light from the first and second cavities, respectively, when the luminometer is in a closed configuration, and a light-generating reagent conduit integrated into the first portion for dispensing a desired volume of light-generating reagent into a reaction cuvette once the luminometer is in the closed position.
A method for identifying that a rectifier of an uninterruptible power supply is in a failure condition, comprising: measuring an input current into the rectifier from a primary power source ; determining, by a controller , a rate of change in the measured current; determining, by the controller, a current difference between a reference current and the measured current; measuring a voltage output by the rectifier; determining, by the controller, a voltage difference between a reference voltage and the measured voltage; and identifying, by the controller, that the rectifier is in a failure condition , upon determining that a first condition that takes into account at least each of the measured input current, the current difference, the measured voltage and their variations is fulfilled. measuring an input current into the rectifier from a primary power source ; determining, by a controller , a rate of change in the measured current; determining, by the controller, a current difference between a reference current and the measured current; measuring a voltage output by the rectifier; determining, by the controller, a voltage difference between a reference voltage and the measured voltage; and identifying, by the controller, that the rectifier is in a failure condition , upon determining that a first condition that takes into account at least each of the measured input current, the current difference, the measured voltage and their variations is fulfilled.
A light emitting system comprising: at least one light emitting unit ; a source of electric power; and an electric power supply element , wherein the light emitting unit is configured to be applied to a surface area of a marine object, and comprises: an electric energy distribution arrangement , and at least one light emitting assembly electrically connected to the electric energy distribution arrangement , including at least one light source configured to emit anti-fouling light, and further including two electrically conductive plates , wherein the at least one light source is at the one side electrically connected to one of the electrically conductive plates and at the other side to the electric energy distribution arrangement , and wherein the electrically conductive plates of the at least one light emitting assembly are arranged to constitute respective capacitors with an electrically conductive surface formed by or over the surface area of the marine object , said capacitors being connected in series through the electrically conductive surface once the light emitting unit is actually applied to a surface area of a marine object , the light emitting system being characterized in that the electric power supply element and the at least one light emitting unit are arranged with respect to each other so as to enable inductive transfer of electric power from the electric power supply element to the at least one light emitting unit . at least one light emitting unit ; a source of electric power; and an electric power supply element , wherein the light emitting unit is configured to be applied to a surface area of a marine object, and comprises: an electric energy distribution arrangement , and at least one light emitting assembly electrically connected to the electric energy distribution arrangement , including at least one light source configured to emit anti-fouling light, and further including two electrically conductive plates , an electric energy distribution arrangement , and at least one light emitting assembly electrically connected to the electric energy distribution arrangement , including at least one light source configured to emit anti-fouling light, and further including two electrically conductive plates , wherein the at least one light source is at the one side electrically connected to one of the electrically conductive plates and at the other side to the electric energy distribution arrangement , and wherein the electrically conductive plates of the at least one light emitting assembly are arranged to constitute respective capacitors with an electrically conductive surface formed by or over the surface area of the marine object , said capacitors being connected in series through the electrically conductive surface once the light emitting unit is actually applied to a surface area of a marine object , the light emitting system being characterized in that the electric power supply element and the at least one light emitting unit are arranged with respect to each other so as to enable inductive transfer of electric power from the electric power supply element to the at least one light emitting unit .
A charging management device which is configured to manage one or more charging devices , each of which has a charging function of providing at least grid power among grid power supplied from a public power grid and off-grid power supplied from a non-public power supply to charge the vehicle via a charging stand device which is configured to control a power distribution board which is configured to switch electric power to be supplied to the charging device between the grid power and the off-grid power, the charging management device , comprising:a grid power information acquisition section which is configured to acquire information about usage rate of the power grid in regions of a predetermined range,a charging device control section which is configured to transmit control data to the charging stand device to control the charging devices within regions so that power to be provided to charge the vehicle from grid power and off-grid power is changed according to the relative magnitude of a proportion of demand to an amount of grid power supplied in the regions, the relative magnitude is based on the use rate of the power grid in each of regions, and an exchange value adjustment section which is configured to adjust an exchange value of power provided by the charging device within the region according to the relative magnitude of the proportion of the demand to the amount of grid power supplied in the region.
Process for preparation of a (meth)acrylic acid ester, the process comprising at least the following step (a): (a) reaction between (meth)acrylic acid anhydride of Formula (I) wherein R 1 is a hydrogen atom or a methyl group; and a substrate in the presence of a first catalyst, whereby a product mixture comprising the (meth)acrylic acid ester is formed; the process being characterised in that the substrate is selected from the group consisting of primary alcohols, secondary alcohols, tertiary alcohols and phenols; and the first catalyst comprises a salt of magnesium or of a rare earth element. (a) reaction between (meth)acrylic acid anhydride of Formula (I) wherein R 1 is a hydrogen atom or a methyl group; and a substrate in the presence of a first catalyst, whereby a product mixture comprising the (meth)acrylic acid ester is formed; wherein R 1 is a hydrogen atom or a methyl group; and a substrate in the presence of a first catalyst, whereby a product mixture comprising the (meth)acrylic acid ester is formed;
A catalyst block for purification of exhaust gas comprising: a rectangular honeycomb core having a large number of exhaust gas passages for honeycomb core allowing exhaust gas to pass, first and second outer surfaces that face to each other in an orthogonal direction that is orthogonal to the exhaust gas passages, and third and fourth outer surfaces that face to each other in the orthogonal direction; a first plate fixed to the honeycomb core so as to cover the first outer surface of the honeycomb core ; a second plate fixed to the honeycomb core so as to cover the second outer surface of the honeycomb core ; and an outer frame that is disposed along an outer periphery of a rigid honeycomb core formed from the honeycomb core , the first plate , and the second plate , and includes a concave part capable of housing at least the first plate , the second plate , the third outer surface , and the fourth outer surface , wherein a catalyst is carried on the honeycomb core , the first plate , and the second plate , and the catalyst is not carried on the outer frame , and the first plate and the second plate are fixed to the honeycomb core with a brazing material. a rectangular honeycomb core having a large number of exhaust gas passages for honeycomb core allowing exhaust gas to pass, first and second outer surfaces that face to each other in an orthogonal direction that is orthogonal to the exhaust gas passages, and third and fourth outer surfaces that face to each other in the orthogonal direction; a first plate fixed to the honeycomb core so as to cover the first outer surface of the honeycomb core ; a second plate fixed to the honeycomb core so as to cover the second outer surface of the honeycomb core ; and an outer frame that is disposed along an outer periphery of a rigid honeycomb core formed from the honeycomb core , the first plate , and the second plate , and includes a concave part capable of housing at least the first plate , the second plate , the third outer surface , and the fourth outer surface , wherein a catalyst is carried on the honeycomb core , the first plate , and the second plate , and the catalyst is not carried on the outer frame , and the first plate and the second plate are fixed to the honeycomb core with a brazing material.