mhurhangee/ep-ind-claims huggingface dataset:
An electromagnetic wave absorbing sheet comprising: an electromagnetic wave absorbing layer containing a magnetic iron oxide that magnetically resonates at frequencies in and above a millimeter wave band and a resin binder, wherein the electromagnetic wave absorbing sheet absorbs radiated electromagnetic waves by magnetic resonance of the magnetic iron oxide, wherein a content of the magnetic iron oxide in the electromagnetic wave absorbing layer is 30% by volume or more, and a content of all inorganic filler powders, including the magnetic iron oxide, present in the binder in the electromagnetic wave absorbing layer is 50% by volume or less, a glass transition temperature (Tg) of the resin binder is 0°C or less, and the electromagnetic wave absorbing sheet has a flexibility evaluation value F (g/mm 2) of more than 0 and 6 or less, which is determined by measuring an applied weight (g) that is required to bend a ribbon-like electromagnetic wave absorbing sheet with a length of 100 mm and a width of 20 mm in an elastic deformation region so that the ribbon-like sheet is folded lengthwise in a middle with both ends in a longitudinal direction overlapping each other, and a distance d between opposing inner surfaces of the folded ribbon-like sheet at a position L spaced 10 mm from a bent portion of the ribbon-like sheet is 10 mm, and dividing the applied weight (g) by a cross-sectional area D (mm 2) of the ribbon-like sheet. an electromagnetic wave absorbing layer containing a magnetic iron oxide that magnetically resonates at frequencies in and above a millimeter wave band and a resin binder, wherein the electromagnetic wave absorbing sheet absorbs radiated electromagnetic waves by magnetic resonance of the magnetic iron oxide, wherein a content of the magnetic iron oxide in the electromagnetic wave absorbing layer is 30% by volume or more, and a content of all inorganic filler powders, including the magnetic iron oxide, present in the binder in the electromagnetic wave absorbing layer is 50% by volume or less, a glass transition temperature (Tg) of the resin binder is 0°C or less, and the electromagnetic wave absorbing sheet has a flexibility evaluation value F (g/mm 2) of more than 0 and 6 or less, which is determined by measuring an applied weight (g) that is required to bend a ribbon-like electromagnetic wave absorbing sheet with a length of 100 mm and a width of 20 mm in an elastic deformation region so that the ribbon-like sheet is folded lengthwise in a middle with both ends in a longitudinal direction overlapping each other, and a distance d between opposing inner surfaces of the folded ribbon-like sheet at a position L spaced 10 mm from a bent portion of the ribbon-like sheet is 10 mm, and dividing the applied weight (g) by a cross-sectional area D (mm 2) of the ribbon-like sheet.
- A method of forming an Al 2 O 3 /SiO 2 stack comprising successively the steps of: a) providing a substrate into a reaction chamber; b) injecting into the reaction chamber, through an ALD process, at least one silicon containing compound selected from the group consisting of: BDEAS Bis(diethylamino)silane SiH 2 (NEt 2) 2, BDMAS Bis(dimethylamino)silane SiH 2 (NMe 2) 2, BEMAS Bis(ethylmethylamino)silane SiH 2 (NEtMe) 2, DIPAS (Di-isopropylamido)silane SiH 3 (NiPr 2), DTBAS (Di tert-butylamido)silane SiH 3 (NtBu 2); c) injecting into the reaction chamber an oxygen source selected in the list: oxygen, ozone, oxygen plasma, water, CO 2 plasma, N 2 O plasma; d) reacting at a temperature comprised between 20°C and 400°C, preferably lower or equal to 250°C, into the reaction chamber at least one of the silicon containing compounds and the oxygen source in order to obtain the SiO 2 layer deposited onto the substrate; e) injecting on said silicon oxide film, through an ALD process, at least one aluminum containing compound selected in the list: Al(Me) 2 (NMe) 2 or Al(Me) 2 (NEt) 2; f) injecting the oxygen source as defined in step c); g) reacting at a temperature comprised between 20°C and 400°C, preferably lower or equal to 250°C, into the reaction chamber at least one of the aluminium containing compounds and the oxygen source in order to obtain the Al 2 O 3 layer deposited onto the SiO 2 layer issued of step d). a) providing a substrate into a reaction chamber; b) injecting into the reaction chamber, through an ALD process, at least one silicon containing compound selected from the group consisting of: BDEAS Bis(diethylamino)silane SiH 2 (NEt 2) 2, BDMAS Bis(dimethylamino)silane SiH 2 (NMe 2) 2, BEMAS Bis(ethylmethylamino)silane SiH 2 (NEtMe) 2, DIPAS (Di-isopropylamido)silane SiH 3 (NiPr 2), DTBAS (Di tert-butylamido)silane SiH 3 (NtBu 2); c) injecting into the reaction chamber an oxygen source selected in the list: oxygen, ozone, oxygen plasma, water, CO 2 plasma, N 2 O plasma; d) reacting at a temperature comprised between 20°C and 400°C, preferably lower or equal to 250°C, into the reaction chamber at least one of the silicon containing compounds and the oxygen source in order to obtain the SiO 2 layer deposited onto the substrate; e) injecting on said silicon oxide film, through an ALD process, at least one aluminum containing compound selected in the list: Al(Me) 2 (NMe) 2 or Al(Me) 2 (NEt) 2; f) injecting the oxygen source as defined in step c); g) reacting at a temperature comprised between 20°C and 400°C, preferably lower or equal to 250°C, into the reaction chamber at least one of the aluminium containing compounds and the oxygen source in order to obtain the Al 2 O 3 layer deposited onto the SiO 2 layer issued of step d).
A medical device, comprising: a head portion including a light source; and a handle portion coupled to the head portion, the handle portion including: one or more processors; one or more non-transitory computer-readable media storing computer-executable instructions that, when executed by the one or more processors, cause the one or more processors to perform acts comprising: receiving an indication associated with adjusting an output of the light source; determining an amount of current drawn by the light source; characterised by further comprising: determining, based at least in part on the amount of current drawn, a type of the light source; determining, based at least in part on the type of the light source, an amount of time associated with disabling the light source; and causing a voltage to be supplied to the light source. a head portion including a light source; and a handle portion coupled to the head portion, the handle portion including: one or more processors; one or more non-transitory computer-readable media storing computer-executable instructions that, when executed by the one or more processors, cause the one or more processors to perform acts comprising: receiving an indication associated with adjusting an output of the light source; determining an amount of current drawn by the light source; characterised by further comprising: determining, based at least in part on the amount of current drawn, a type of the light source; determining, based at least in part on the type of the light source, an amount of time associated with disabling the light source; and causing a voltage to be supplied to the light source. one or more processors; one or more non-transitory computer-readable media storing computer-executable instructions that, when executed by the one or more processors, cause the one or more processors to perform acts comprising: receiving an indication associated with adjusting an output of the light source; determining an amount of current drawn by the light source; characterised by further comprising: determining, based at least in part on the amount of current drawn, a type of the light source; determining, based at least in part on the type of the light source, an amount of time associated with disabling the light source; and causing a voltage to be supplied to the light source. receiving an indication associated with adjusting an output of the light source; determining an amount of current drawn by the light source; characterised by further comprising: determining, based at least in part on the amount of current drawn, a type of the light source; determining, based at least in part on the type of the light source, an amount of time associated with disabling the light source; and causing a voltage to be supplied to the light source. determining, based at least in part on the amount of current drawn, a type of the light source; determining, based at least in part on the type of the light source, an amount of time associated with disabling the light source; and causing a voltage to be supplied to the light source.
A computer-implemented method, comprising: receiving a user selection of a target object in a user interface, UI; in response to the user section of the target object determining whether the target object has unique attributes as compared to attributes common to at least one other object in the UI; in response to a determination that the target object lacks unique attributes: identifying a second target object lacking unique attributes in the UI as an intermediate reference object; identifying a unique object with unique attributes in the UI; defining a unique-intermediate relationship between the unique object and the intermediate reference object, wherein the unique object references the intermediate reference object; defining an intermediate-target relationship between the intermediate reference object and the target object, wherein the intermediate reference object references the target object; and recording the unique-intermediate relationship and the intermediate-target relationship in a script configured to uniquely identify the target object. receiving a user selection of a target object in a user interface, UI; in response to the user section of the target object determining whether the target object has unique attributes as compared to attributes common to at least one other object in the UI; in response to a determination that the target object lacks unique attributes: identifying a second target object lacking unique attributes in the UI as an intermediate reference object; identifying a unique object with unique attributes in the UI; defining a unique-intermediate relationship between the unique object and the intermediate reference object, wherein the unique object references the intermediate reference object; defining an intermediate-target relationship between the intermediate reference object and the target object, wherein the intermediate reference object references the target object; and recording the unique-intermediate relationship and the intermediate-target relationship in a script configured to uniquely identify the target object. identifying a second target object lacking unique attributes in the UI as an intermediate reference object; identifying a unique object with unique attributes in the UI; defining a unique-intermediate relationship between the unique object and the intermediate reference object, wherein the unique object references the intermediate reference object; defining an intermediate-target relationship between the intermediate reference object and the target object, wherein the intermediate reference object references the target object; and recording the unique-intermediate relationship and the intermediate-target relationship in a script configured to uniquely identify the target object.
An electromagnetic contactor comprising an electromagnetic device having an exciting coil and a contact mechanism having a return spring; the electromagnetic device and the contact mechanism being disposed in parallel, and being linked by a drive lever, wherein the electromagnetic device is configured of a polarized electromagnet including a magnetic circuit that includes a permanent magnet generating a suction force that, when the exciting coil is not energized, moves the contact mechanism to a pole open position side, the drive lever is fixed to either one of the electromagnetic device or contact mechanism, and is brought into contact with the other with no gap at least when the contact mechanism is moved to the pole open position side, the contact mechanism comprises contact springs for biasing movable contacts of the contact mechanism in a contact direction, wherein the contact springs are arranged so that they are compressed when the contact mechanism is moved to the pole open position side, the return spring is configured such that in the vicinity of the pole open position, before reaching the pole open position, the spring load of the return spring coincides with the spring load of the contact springs, so that further compression of the contact springs by the return spring is impossible, and the return force of the contact mechanism in the vicinity of the pole open position is provided for by suction force of the permanent magnet, so that the contact springs are further compressed by the suction force of the permanent magnet, and the contact mechanism is returned to the pole open position.
A system for monitoring asymmetry between two components, comprising a comparator having a first input to receive a signal indicative of a position of a first component and a second input to receive a signal indicative of a position of a second component, the comparator configured to compare the difference between the first input and the second input to a predetermined threshold and to output a first signal state in the event that the difference exceeds the threshold; means (2', 3', 4') for performing an integration of a plurality of output first signal states from the comparator indicative of the difference exceeding the threshold; and means (5', 6') for outputting a command signal to actuate a brake in response to the integrating means determining that the number of times the difference exceeds the threshold is in excess of a given value; wherein the system further outputs a command signal to actuate the brake, in response to the comparison, each time the difference exceeds the threshold.
A method for sealing porosity of at least a portion of an outer porous surface of an article, said method comprising (i) applying a first solution on the outer porous surface of said article, (ii) infiltrating at least a portion of the outer porous surface with said first solution, (iii) applying a second solution on the outer porous surface of said article, (iv) infiltrating at least a portion of the outer porous surface with said second solution, and (v) allowing the infiltrated first solution and the infiltrated second solution to react, thereby forming an infiltrated solid precipitate, said infiltrated solid precipitate sealing the porosity of at least a portion of the outer porous surface of said article, and (vi) heating the article to a temperature of greater than 750°C in order to convert the infiltrated solid precipitate to an oxide, wherein (a) the first solution comprises a metal salt selected from yttrium nitrate, cerium nitrate or lanthanum nitrate and the second solution comprises a base selected from ammonium hydroxide, potassium hydroxide or sodium hydroxide, or (b) the first solution comprises a base selected from ammonium hydroxide, potassium hydroxide or sodium hydroxide and the second solution comprises a metal salt selected from yttrium nitrate, cerium nitrate or lanthanum nitrate, and wherein the infiltrated solid precipitate comprises yttrium hydroxy nitrate, cerium hydroxy nitrate or lanthanum hydroxy nitrate, respectively.
Capsule for preparing infused or soluble beverages, comprising: - a cup suitable to define an inner volume for the containment of at least one substance to be infused or dissolved, said cup being closed above by a cover, said cup being provided with a bottom, provided with an opening for the outflow of the infused beverage, and a base provided with reliefs (310, 320, 330, 340, 350, 360) devoid of cutting or puncture elements; - a disc, placed inside of the cup and suitable to seal the capsule below, permanently fixed on the reliefs (320, 330, 340, 360) of the base; characterized in that said disc is composed of at least two distinct portions (51, 52) joined together in a manner at least partially releasable, and in that the opening of the capsule for the outflow of the infused beverage occurs as a result of the deformation of the disc by the pressure exerted by the fluid inside the capsule, deformation that determines a separation between the portions (51, 52) that compose the disc, separation that opens a passage for the outflow of the infused liquid. - a cup suitable to define an inner volume for the containment of at least one substance to be infused or dissolved, said cup being closed above by a cover, said cup being provided with a bottom, provided with an opening for the outflow of the infused beverage, and a base provided with reliefs (310, 320, 330, 340, 350, 360) devoid of cutting or puncture elements; - a disc, placed inside of the cup and suitable to seal the capsule below, permanently fixed on the reliefs (320, 330, 340, 360) of the base;
A method for detecting electron beam filament wear in an electron beam source, said method comprising the steps of: a. fixing the electron beam source in a reference condition, b. moving a focus plane of electron beams emanating from said electron beam source a predetermined distance from a target surface for reproducing electron emission of the filament onto the target surface, thereby enlarging a beam spot emanating from said electron beam source on the target surface to a predetermined minimum size, c. capturing an image of the reproduced electron emission of the filament onto the target surface by a camera, d. comparing said captured image of said beam spot with a reference image of the reproduced electron emission of the filament onto the target surface, and e. detecting filament wear if a luminous flux in said captured image is deviating more than a predetermined value from said reference image. a. fixing the electron beam source in a reference condition, b. moving a focus plane of electron beams emanating from said electron beam source a predetermined distance from a target surface for reproducing electron emission of the filament onto the target surface, thereby enlarging a beam spot emanating from said electron beam source on the target surface to a predetermined minimum size, c. capturing an image of the reproduced electron emission of the filament onto the target surface by a camera, d. comparing said captured image of said beam spot with a reference image of the reproduced electron emission of the filament onto the target surface, and e. detecting filament wear if a luminous flux in said captured image is deviating more than a predetermined value from said reference image.
The use of compounds of general formula, in which A represents -Q-(CH 2) n -Q, -(CH 2) m -Q-(CH 2) p - or, Q represents O, N(R 5) or N + H(R 5) X -, R 1, R 2, R 3, R 4 and R 5 represent, independently of one another, hydrogen or a straight-chain or branched alkyl group having 1 to 4 C atoms, X - represents a charge-balancing anion, and n represents a number from 1 to 10, and m and p represent, independently of one another, numbers from 0 to 7, in washing or cleaning agents for improving the washing or cleaning performance against bleachable stains.
A scintillator, comprising a sintered body having a volume of ≤ 1 mm 3 and containing a rare earth oxysulfide, wherein - in a composition image obtained by observing a cross-section of the sintered body under a scanning electron microscope, the sum of the number of oxide regions that contain at least one of a rare earth oxide different from the rare earth oxysulfide and an impurity metal oxide and the number of sulfide regions that contain at least one of a rare earth sulfide different from the rare earth oxysulfide and an impurity metal sulfide, which exist in a unit area of 500 μm × 500 μm, is 1-5; - each of the oxide regions and the sulfide regions has a major axis of ≤ 100 μm; - the rare earth oxide and the rare earth sulfide contain at least one element of the same rare earth elements as rare earth elements contained in the rare earth oxysulfide; - the impurity metal oxide and the impurity metal sulfide contain one or two or more elements selected from an alkali metal element, an alkaline earth metal element, and iron; and - the sintered body has a plurality of rare earth oxysulfide crystal grains and at least some of the oxide regions and the sulfide regions exist at a grain boundary between a plurality of the rare earth oxysulfide crystal grains. - in a composition image obtained by observing a cross-section of the sintered body under a scanning electron microscope, the sum of the number of oxide regions that contain at least one of a rare earth oxide different from the rare earth oxysulfide and an impurity metal oxide and the number of sulfide regions that contain at least one of a rare earth sulfide different from the rare earth oxysulfide and an impurity metal sulfide, which exist in a unit area of 500 μm × 500 μm, is 1-5; - each of the oxide regions and the sulfide regions has a major axis of ≤ 100 μm; - the rare earth oxide and the rare earth sulfide contain at least one element of the same rare earth elements as rare earth elements contained in the rare earth oxysulfide; - the impurity metal oxide and the impurity metal sulfide contain one or two or more elements selected from an alkali metal element, an alkaline earth metal element, and iron; and - the sintered body has a plurality of rare earth oxysulfide crystal grains and at least some of the oxide regions and the sulfide regions exist at a grain boundary between a plurality of the rare earth oxysulfide crystal grains.
A duct wall surface structure of an iron-sheet duct for flowing there-through a solid-gas two-phase stream containing solid ash particles including large diameter ash with a particle size of about 1mm or more, the duct wall surface structure comprising a hopper (20A;30A) provided at a lower end of the iron-sheet duct which is installed in such a direction that the stream has a vertical component of velocity to collect the solid particles from the stream, characterized in that a low-rebound structure part (60;60B;60C;80) having a lower coefficient of restitution than an iron sheet is provided in a region of an inner wall surface of the duct with which the solid particles can collide, on an upstream side or a downstream side in a flow direction from the hopper (20A;30A), wherein the low-rebound structure part (60;60B;60C;80) is a low-rebound member (63;64) which is installed on an inner wall surface of the iron-sheet duct and can elastically deform upon collision of the solid particles therewith.
A method for treating spent powdered activated carbon and/or coal combustion residues (CCRs), comprising: collecting spent PAC and/or CCRs from a particulate collection system, transferring the spent PAC and/or CCRs to a storage unit, transferring the spent PAC and/or CCRs to a volatilization vessel or zone, heating the spent PAC and/or CCRs in an inert atmosphere to volatilize at least one heavy metal captured in the spent PAC and/or CCRs to thereby vaporize at least one heavy metal into a gas stream, injecting or spraying a treating solution comprising a water soluble alkaline-earth sulfide into the gas stream containing the at least one vaporized heavy metal in a treatment unit to thereby precipitate out the at least one vaporized heavy metal from the gas stream in the form of a residue, collecting or filtering out the residue in a silo. collecting spent PAC and/or CCRs from a particulate collection system, transferring the spent PAC and/or CCRs to a storage unit, transferring the spent PAC and/or CCRs to a volatilization vessel or zone, heating the spent PAC and/or CCRs in an inert atmosphere to volatilize at least one heavy metal captured in the spent PAC and/or CCRs to thereby vaporize at least one heavy metal into a gas stream, injecting or spraying a treating solution comprising a water soluble alkaline-earth sulfide into the gas stream containing the at least one vaporized heavy metal in a treatment unit to thereby precipitate out the at least one vaporized heavy metal from the gas stream in the form of a residue, collecting or filtering out the residue in a silo.