mhurhangee/ep-ind-claims huggingface dataset:
A filter element comprising: a fluted filter media pack (102, 202, 302) having a face sheet and a fluted sheet secured together to provide a plurality of flutes, wherein the first flutes are closed proximate an inlet face and the second flutes are closed proximate an outlet face; and an axial seal gasket assembly comprising an axial seal member (106, 206, 306) and a media pack seal member (108, 208, 308) and a frame (204, 304), wherein the axial seal member (106, 206, 306) is carried by an axial seal support portion (214, 322) of the frame (204, 304) and the axial seal member (106, 206, 306) is molded independent of the media pack seal member (108, 208, 308), wherein the frame (204, 304) is attached and secured to the fluted filter media pack (102, 202, 302) by the media pack seal member (108, 208, 308), wherein the axial seal member (106, 206, 306) is formed of a first polymeric material and the media pack seal member (108, 208, 308) is formed of a second polymeric material, wherein the first polymeric material is softer than the second polymeric material. a fluted filter media pack (102, 202, 302) having a face sheet and a fluted sheet secured together to provide a plurality of flutes, wherein the first flutes are closed proximate an inlet face and the second flutes are closed proximate an outlet face; and an axial seal gasket assembly comprising an axial seal member (106, 206, 306) and a media pack seal member (108, 208, 308) and a frame (204, 304), wherein the axial seal member (106, 206, 306) is carried by an axial seal support portion (214, 322) of the frame (204, 304) and the axial seal member (106, 206, 306) is molded independent of the media pack seal member (108, 208, 308), wherein the frame (204, 304) is attached and secured to the fluted filter media pack (102, 202, 302) by the media pack seal member (108, 208, 308), wherein the axial seal member (106, 206, 306) is formed of a first polymeric material and the media pack seal member (108, 208, 308) is formed of a second polymeric material, wherein the first polymeric material is softer than the second polymeric material.
A touch sensor panel comprising: a plurality of rows comprising at least one non-split row and at least one split row including a plurality of row subsections; and a plurality of columns comprising at least one non-split column and at least one split column including a plurality of column subsections; wherein the touch sensor panel is configured with at least one split row and at least one split column located such that a touch anywhere on the touch sensor panel at least partially overlaps with at least one split row and at least one split column, and wherein the rows and columns are individually charged electrodes capable of detecting a change in capacitance in a corresponding area of the touch sensor panel. a plurality of rows comprising at least one non-split row and at least one split row including a plurality of row subsections; and a plurality of columns comprising at least one non-split column and at least one split column including a plurality of column subsections; wherein the touch sensor panel is configured with at least one split row and at least one split column located such that a touch anywhere on the touch sensor panel at least partially overlaps with at least one split row and at least one split column, and
Method for reduction of the content of sulphur oxides (SOx) in exhaust gases from a marine diesel engine, comprising the steps of: a) introducing the exhaust gases into a reaction compartment, while b) spraying, under pressure, an aerosol of sea water with or without an alkaline addition, such as sodium hydroxide (NaOH), into the flow of the exhaust gases at the entrance of the gas flow into the reaction compartment and/or directly into the reaction compartment, so as to bring the sea water aerosol or an aerosol including an alkaline solution to react with the sulphur oxides in the exhaust gases to generate disposable reaction products thereof, characterized by the step of: c) causing a mixture containing gas, water and the reaction products to pass through a plurality of rotating centrifugal rotors arranged in parallel, each centrifugal rotor comprising a disc stack so as to separate-out the reaction products and liquids from the gas due to centrifugal forces and discharging the cleaned gas to the environment. a) introducing the exhaust gases into a reaction compartment, while b) spraying, under pressure, an aerosol of sea water with or without an alkaline addition, such as sodium hydroxide (NaOH), into the flow of the exhaust gases at the entrance of the gas flow into the reaction compartment and/or directly into the reaction compartment, so as to bring the sea water aerosol or an aerosol including an alkaline solution to react with the sulphur oxides in the exhaust gases to generate disposable reaction products thereof, characterized by the step of: c) causing a mixture containing gas, water and the reaction products to pass through a plurality of rotating centrifugal rotors arranged in parallel, each centrifugal rotor comprising a disc stack so as to separate-out the reaction products and liquids from the gas due to centrifugal forces and discharging the cleaned gas to the environment.
A method for wireless communication, comprising: obtaining (1110, 1210, 1310), by a first wireless communication device (215, 500), a node-specific reservation response signal, RRS, configuration (810, 915) designated to the first wireless communication device (215, 500), wherein the node-specific RRS configuration (810, 915) indicates a root index and a cyclic-shift value for generating a transmission waveform to represent reservation information, and an allocated transmission resource; transmitting (1130, 1230, 1330), on the allocated transmission resource, by the first wireless communication device (215, 500), a reservation signal (322, 324, 840, 1022, 1024) to reserve a transmission opportunity, TXOP, in a shared spectrum, wherein the reservation signal includes the transmission waveform representing the reservation information and indicates at least one of: a) a transmit power level of the reservation signal (322, 324, 840, 1022, 1024), or b) an interference tolerance level of the first wireless communication device (215, 500). obtaining (1110, 1210, 1310), by a first wireless communication device (215, 500), a node-specific reservation response signal, RRS, configuration (810, 915) designated to the first wireless communication device (215, 500), wherein the node-specific RRS configuration (810, 915) indicates a root index and a cyclic-shift value for generating a transmission waveform to represent reservation information, and an allocated transmission resource; transmitting (1130, 1230, 1330), on the allocated transmission resource, by the first wireless communication device (215, 500), a reservation signal (322, 324, 840, 1022, 1024) to reserve a transmission opportunity, TXOP, in a shared spectrum, wherein the reservation signal includes the transmission waveform representing the reservation information and indicates at least one of: a) a transmit power level of the reservation signal (322, 324, 840, 1022, 1024), or b) an interference tolerance level of the first wireless communication device (215, 500). a) a transmit power level of the reservation signal (322, 324, 840, 1022, 1024), or b) an interference tolerance level of the first wireless communication device (215, 500).
A device for the simultaneous generation of steam and vaporized hydrogen peroxide, said device comprising a chamber having - a water inlet, - a steam outlet; - an associated heat source; a vessel not communicating with the chamber but adapted to it for allowing heat transfer from steam generated in the chamber to the vessel, said vessel having - an inlet for hydrogen peroxide solution, and - an outlet for hydrogen peroxide vapor; the device comprising means for preventing contact of liquid water in the chamber with the vessel and a carrier gas conduit adapted to pass through the chamber and ending in a nozzle within the vessel. - a water inlet, - a steam outlet; - an associated heat source; - an inlet for hydrogen peroxide solution, and - an outlet for hydrogen peroxide vapor;
A heat-generating element comprising a PTC element, having contact sheets (6.1; 6.2) abutting against side faces of the PTC element in electrically conducting relationship and provided for energizing the PTC element with different polarities, and an insulating layer abutting against a main side surface of one of the contact sheets (6.1; 6.2) facing away from the PTC element, characterized in that the insulating layer is formed by an insulating plate, and in that at least one of the contact sheets (6.1; 6.2) is provided with retaining lugs which at an opposite side surface of the PTC element against which the other of the contact sheets (6.2; 6.1) abuts in electrically conductive relationship abut against the PTC element with the interposition of the insulating plate and positively embrace the PTC element and the insulating plate, wherein edges of the insulating plate which are positively embraced by the retaining lugs project beyond the PTC element at the edge thereof.
An AFX framework type zeolite having, it its calcined form, a composition comprising the molar relationship: Al 2 O 3:( n)SiO 2 wherein n has a value of 52 to 100.
An aerosol-generating system comprising: a nicotine source; and a delivery enhancing compound source, wherein the delivery enhancing compound source comprises the reaction product of one or both of: (i) an alpha-keto carboxylic acid and a compound of formula wherein R 1 is selected from alkyl, phenyl or substituted phenyl; and (ii) an alpha-hydroxy acid and a compound of formula wherein X is halogen and R 2 is selected from H, alkyl, phenyl or substituted phenyl. a nicotine source; and a delivery enhancing compound source, wherein the delivery enhancing compound source comprises the reaction product of one or both of: (i) an alpha-keto carboxylic acid and a compound of formula wherein R 1 is selected from alkyl, phenyl or substituted phenyl; and (ii) an alpha-hydroxy acid and a compound of formula wherein X is halogen and R 2 is selected from H, alkyl, phenyl or substituted phenyl. (i) an alpha-keto carboxylic acid and a compound of formula wherein R 1 is selected from alkyl, phenyl or substituted phenyl; and (ii) an alpha-hydroxy acid and a compound of formula wherein X is halogen and R 2 is selected from H, alkyl, phenyl or substituted phenyl.
A computer-implemented method for recovering off scale data in an image produced by a camera in a capillary electrophoresis instrument, wherein multiple columns of raw spectral data of a full frame of the camera are combined into spectral bins, each bin combining electrons from one or more camera pixels, the method comprising: identifying bins of the image where electron counts produce a signal greater than a maximum camera signal; setting an off-scale flag for the identified bins; and processing the image to obtain a recovered dye signal, based on the flag set for each bin, and using a dye matrix, wherein processing the image further characterized by: setting to zero any coefficient of the dye matrix corresponding to bins that have been flagged as off-scale; calculating a modified pseudoinverse dye matrix; and calculating the recovered dye signal using the modified pseudoinverse dye matrix. identifying bins of the image where electron counts produce a signal greater than a maximum camera signal; setting an off-scale flag for the identified bins; and processing the image to obtain a recovered dye signal, based on the flag set for each bin, and using a dye matrix, wherein processing the image further characterized by: setting to zero any coefficient of the dye matrix corresponding to bins that have been flagged as off-scale; calculating a modified pseudoinverse dye matrix; and calculating the recovered dye signal using the modified pseudoinverse dye matrix. setting to zero any coefficient of the dye matrix corresponding to bins that have been flagged as off-scale; calculating a modified pseudoinverse dye matrix; and calculating the recovered dye signal using the modified pseudoinverse dye matrix.
A bill storage cassette adapted to be inserted into or removed from a chassis, the cassette comprising: a shutter; a link to engage the shutter; and a drive shaft comprising at one end a helical slot and adapted to engage the link; wherein the shutter is adapted to open or close as the drive shaft is rotated by an actuator fixed within the chassis and engaging the helical slot of the drive shaft when the cassette is inserted into or removed from the chassis; wherein the rotation of the shaft forces the link to rotate, whereby rotation of the link causes the shutter to open or close. a shutter; a link to engage the shutter; and a drive shaft comprising at one end a helical slot and adapted to engage the link; wherein the shutter is adapted to open or close as the drive shaft is rotated by an actuator fixed within the chassis and engaging the helical slot of the drive shaft when the cassette is inserted into or removed from the chassis; wherein the rotation of the shaft forces the link to rotate, whereby rotation of the link causes the shutter to open or close.
Method for producing a glass fibre product (61, 62) wherein the molten glass is transformed into glass fibre product (61, 62) by: ∘ spinning the molten glass into at least one thread, ∘ drawing the at least one thread into one or more filaments, ∘ sizing the filament(s), ∘ collecting the filament(s), ∘ producing the glass fibre product by means of the collected, drawn filament(s), and ∘ thermal de-sizing of the glass fibre product, method wherein the molten glass is produced in a melting furnace heated by combustion of a fuel with a rich oxidant having an oxygen content of 80%vol. to 100%vol., with heat generation and fumes, said fumes generated being evacuated from the melting furnace at a temperature of between 1000°C and 1600°C, the method being characterised in that: ∘ air is heated by heat exchange with fumes evacuated into a heat exchange unit (20, 21, 22) with obtention of hot air, ∘ a reagent (28a, 29a) selected from among rich oxidants and gaseous fuels is preheated by heat exchange with the hot air in the heat exchange unit (20, 21, 22) with obtention, on the one hand, of preheated reagent (28b, 29b) and, on the other hand, of temperate air at a temperature of between 200°C and 500°C, ∘ the preheated reagent (28a, 29a) is used as a combustion reagent in the melting furnace, ∘ the temperate air coming from the heat exchange unit (20, 21, 22) is implemented during the thermal de-sizing step, preferably by putting the temperate air in contact with the glass fibre product during the de-sizing, in order to promote the volatilisation and/or the combustion of the sizing present on the glass fibre product. ∘ spinning the molten glass into at least one thread, ∘ drawing the at least one thread into one or more filaments, ∘ sizing the filament(s), ∘ collecting the filament(s), ∘ producing the glass fibre product by means of the collected, drawn filament(s), and ∘ thermal de-sizing of the glass fibre product, ∘ air is heated by heat exchange with fumes evacuated into a heat exchange unit (20, 21, 22) with obtention of hot air, ∘ a reagent (28a, 29a) selected from among rich oxidants and gaseous fuels is preheated by heat exchange with the hot air in the heat exchange unit (20, 21, 22) with obtention, on the one hand, of preheated reagent (28b, 29b) and, on the other hand, of temperate air at a temperature of between 200°C and 500°C, ∘ the preheated reagent (28a, 29a) is used as a combustion reagent in the melting furnace, ∘ the temperate air coming from the heat exchange unit (20, 21, 22) is implemented during the thermal de-sizing step, preferably by putting the temperate air in contact with the glass fibre product during the de-sizing, in order to promote the volatilisation and/or the combustion of the sizing present on the glass fibre product.
A method of preparing a blood product, comprising preparing a gene knockout pig and isolating a blood product from said gene knockout pig; wherein said gene knockout pig is prepared through somatic cell nuclear transfer by using a CRISPR/Cas9 vector combination; the exon 3 of said GGTA1 gene, the exon 6 of said CMAH gene and the exon 8 of said β4GalNT2 gene serve as the parts targeted by CRISPR/Cas9; wherein the CRISPR/Cas9 vector combination comprises a GGTA1-CRISPR/Cas9 vector, a CMAH-CRISPR/Cas9 vector and a β4GalNT2-CRISPR/Cas9 vector, said GGTA1-CRISPR/Cas9 vector contains the sgRNA nucleotide sequence specifically targeting the GGTA1 gene of SEQ ID No: 1, said CMAH-CRISPR/Cas9 vector contains the sgRNA nucleotide sequence specifically targeting the CMAH gene of SEQ ID No: 2, and said β4GalNT2-CRISPR/Cas9 vector contains the sgRNA nucleotide sequence specifically targeting the β4GalNT2 gene of SEQ ID No: 3. wherein said gene knockout pig is prepared through somatic cell nuclear transfer by using a CRISPR/Cas9 vector combination; the exon 3 of said GGTA1 gene, the exon 6 of said CMAH gene and the exon 8 of said β4GalNT2 gene serve as the parts targeted by CRISPR/Cas9; wherein the CRISPR/Cas9 vector combination comprises a GGTA1-CRISPR/Cas9 vector, a CMAH-CRISPR/Cas9 vector and a β4GalNT2-CRISPR/Cas9 vector, said GGTA1-CRISPR/Cas9 vector contains the sgRNA nucleotide sequence specifically targeting the GGTA1 gene of SEQ ID No: 1, said CMAH-CRISPR/Cas9 vector contains the sgRNA nucleotide sequence specifically targeting the CMAH gene of SEQ ID No: 2, and said β4GalNT2-CRISPR/Cas9 vector contains the sgRNA nucleotide sequence specifically targeting the β4GalNT2 gene of SEQ ID No: 3.
Support element for a raised surface, the support element comprising the following parts: (a) a base allowing the support element to be placed in an upright position on an underlying surface, (b) on the base, an intermediate piece, consisting of one or more stackable connecting pieces exhibiting a relief on at least one side parallel with the underlying surface, having one or more projections and/or one or more cavities, which fit into a complementary relief of an overlying or underlying connecting piece, or in the absence of multiple connecting pieces, into a complementary relief on the base and/or the support plate, and (c) on the intermediate piece, a support plate, suitable as a support of an object at a distance from the underlying surface, whereby the one or more stackable connecting pieces include a shock and/or vibration absorbing connecting piece consisting at least partly of shock and/or vibration absorbing material wherein the one or more stackable connecting pieces, including the shock and/or vibration absorbing connecting piece, exhibit a relief parallel to the underlying surface on both sides, having one or more projections and/or one or more cavities allowing several connecting pieces to be stacked such that the projecting portions of one connecting piece fit into the cavities of an overlying or underlying connecting piece, characterized in that each of said one or more connecting pieces, including the shock and/or vibration absorbing connecting piece, includes one projection that is carried out annularly in the vicinity of the outer circumference of one side parallel with the underlying surface, and includes one cavity that is carried out annularly in the vicinity of the outer circumference of the opposite side parallel with the underlying surface. (a) a base allowing the support element to be placed in an upright position on an underlying surface, (b) on the base, an intermediate piece, consisting of one or more stackable connecting pieces exhibiting a relief on at least one side parallel with the underlying surface, having one or more projections and/or one or more cavities, which fit into a complementary relief of an overlying or underlying connecting piece, or in the absence of multiple connecting pieces, into a complementary relief on the base and/or the support plate, and (c) on the intermediate piece, a support plate, suitable as a support of an object at a distance from the underlying surface,
A wind turbine blade for a rotor of a wind turbine having a substantially horizontal rotor shaft, the rotor comprising a hub, from which the wind turbine blade extends substantially in a radial direction when mounted to the hub, the wind turbine blade extending in a longitudinal direction parallel to a longitudinal axis and having a tip end and a root end, the wind turbine blade further comprising a profiled contour including a pressure side and a suction side, as well as a leading edge and a trailing edge with a chord having a chord length extending therebetween, the profiled contour, when being impacted by an incident airflow, generating a lift, wherein the wind turbine blade further comprises at least a first array of projecting flow modulation elements provided at the trailing edge of the contour, said flow modulation elements projecting in a direction substantially away from the leading edge of the contour, said elements operable to reduce noise generated by operation of the blade by modulation of the airflow at the trailing edge of the contour, characterised in that the wind turbine blade further comprises at least one fluid injection device, the fluid injection device operable to inject fluid into the airflow over the blade contour to reduce the turbulent kinetic energy of airflow at the trailing edge of the profiled contour, to further reduce the noise generated by operation of the blade, wherein the fluid injection device comprises a nozzle operable to inject fluid in the form of a spray or droplets into the airflow over the blade contour. the wind turbine blade further comprising a profiled contour including a pressure side and a suction side, as well as a leading edge and a trailing edge with a chord having a chord length extending therebetween, the profiled contour, when being impacted by an incident airflow, generating a lift, wherein the wind turbine blade further comprises at least a first array of projecting flow modulation elements provided at the trailing edge of the contour, said flow modulation elements projecting in a direction substantially away from the leading edge of the contour, said elements operable to reduce noise generated by operation of the blade by modulation of the airflow at the trailing edge of the contour,