mhurhangee/ep-ind-claims huggingface dataset:
A unit dose machine dish wash detergent product comprising at least one transparent solid part, wherein the transparent solid part comprises detergent active, and wherein the at least one transparent part has a total Light transmittance of at least 30 %, based on a path-length of 10 mm; and wherein the at least one transparent part has a degree of Light scattering of less than 50 %, wherein the transparent solid part comprises a combination of a a) chiral aminopolycarboxylate and b) an organic acid, wherein the transparent solid part has c) a water content of from 2 to 30 wt. %.
A batch composition, comprising: pre-reacted inorganic spheroidal particles that are formed as spheroids and that are at least partially reacted to comprise a desired ceramic crystalline phase composition prior to being provided to the batch composition, the pre-reacted inorganic spheroidal particles having a pre-reacted particle size distribution wherein: 10 μ m ≤ DI 50 ≤ 50 μ m, and DIb ≤ 2.0, wherein Dlb = {DI 90 -DI 10}/DI 50; and pore-former spheroidal particles having a pore-former particle size distribution wherein: 0.40 DP 50 ≤ DI 50 ≤ 0.90 DP 50, and DPb ≤ 1.32, wherein DPb = {DP 90 -DP 10}/DP 50; and wherein DI 50 is a median particle diameter of the pre-reacted particle size distribution of the pre-reacted inorganic spheroidal particles, DP 50 is a median particle diameter of the pore-former particle size distribution of the pore-former spheroidal particles, Dlb is a breadth factor of the pre-reacted particle size distribution of the pre-reacted inorganic spheroidal particles, and DPb is a breadth factor of the pore-former particle size distribution of the pore-former spheroidal particles, wherein the batch composition comprises less than 20% of fine inorganic particles based on a total weight of the pre-reacted inorganic spheroidal particles, wherein the fine inorganic particles have a median diameter of less than 5 μm. pre-reacted inorganic spheroidal particles that are formed as spheroids and that are at least partially reacted to comprise a desired ceramic crystalline phase composition prior to being provided to the batch composition, the pre-reacted inorganic spheroidal particles having a pre-reacted particle size distribution wherein: 10 μ m ≤ DI 50 ≤ 50 μ m, and DIb ≤ 2.0, wherein Dlb = {DI 90 -DI 10}/DI 50; and pore-former spheroidal particles having a pore-former particle size distribution wherein: 0.40 DP 50 ≤ DI 50 ≤ 0.90 DP 50, and DPb ≤ 1.32, wherein DPb = {DP 90 -DP 10}/DP 50; and wherein DI 50 is a median particle diameter of the pre-reacted particle size distribution of the pre-reacted inorganic spheroidal particles, DP 50 is a median particle diameter of the pore-former particle size distribution of the pore-former spheroidal particles, Dlb is a breadth factor of the pre-reacted particle size distribution of the pre-reacted inorganic spheroidal particles, and DPb is a breadth factor of the pore-former particle size distribution of the pore-former spheroidal particles, wherein the batch composition comprises less than 20% of fine inorganic particles based on a total weight of the pre-reacted inorganic spheroidal particles, wherein the fine inorganic particles have a median diameter of less than 5 μm.
An electronic device adapted to detect an audio accessory, comprising: an audio jack having at least two detection terminals (91,95), the detection terminals including a first detection terminal providing an end terminal adapted to send audio information to a tip connector of an audio plug of the audio accessory and a second detection terminal spaced apart from the end terminal and positioned within the audio jack so when the audio plug of the audio accessory is inserted into the audio jack, the end terminal and second detection terminal will be shorted; and a detection circuit adapted to apply a bias voltage to one of the first and second detection terminals (91,95), the bias voltage being outside of an output voltage range of an audio amplifier coupled to the other of the first and second detection terminals (91,95), and adapted to monitor the detection terminals (91,95), and when the detection circuit detects a short therebetween, indicate that the audio accessory is present. an audio jack having at least two detection terminals (91,95), the detection terminals including a first detection terminal providing an end terminal adapted to send audio information to a tip connector of an audio plug of the audio accessory and a second detection terminal spaced apart from the end terminal and positioned within the audio jack so when the audio plug of the audio accessory is inserted into the audio jack, the end terminal and second detection terminal will be shorted; and a detection circuit adapted to apply a bias voltage to one of the first and second detection terminals (91,95), the bias voltage being outside of an output voltage range of an audio amplifier coupled to the other of the first and second detection terminals (91,95), and adapted to monitor the detection terminals (91,95), and when the detection circuit detects a short therebetween, indicate that the audio accessory is present.
A beta-lactamase for use in reducing the incidence and/or severity of graft-versus-host disease (GVHD) in a subject in need thereof, optionally wherein the GVHD is acute, wherein the beta-lactamase has an amino acid sequence of at least 95% identity with SEQ ID NO: 1, SEQ ID NO: 3, SEQ ID NO: 4, or SEQ ID NO: 6, optionally wherein the beta-lactamase is the amino acid sequence of SEQ ID NO: 1, SEQ ID NO: 3, SEQ ID NO: 4, or SEQ ID NO: 6, wherein the subject is being or has been administered an intravenous beta-lactam antibiotic, and wherein (i) new colonization within the intestinal microbiome of the subject is prevented, (ii) expansion of colonization within the intestinal microbiome of the subject is prevented, and/or (iii) monodomination of the intestinal microbiome is prevented. wherein the subject is being or has been administered an intravenous beta-lactam antibiotic, and wherein (i) new colonization within the intestinal microbiome of the subject is prevented, (ii) expansion of colonization within the intestinal microbiome of the subject is prevented, and/or (iii) monodomination of the intestinal microbiome is prevented.
A support frame structure for a fiber web machine comprising at least two first columns (12.1) arranged in a first line (14.1), and at least two second columns (12.2) arranged in a second line (14.2), wherein the first and the second lines (14.1, 14.2) are arranged parallel to and at a distance from each other, and wherein the successive two columns (12.1) in the first line (14.1) are connected with each other with a first beam (16.1) and the successive two columns (12.2) in the second line (14.2) are connected with each other with a second beam (16.2), and wherein the first columns (12.1) are constructed of at least two parts (12.1', 12.2") and provided with a fabric insertion means there between, and wherein each one of the columns (12.1, 12.2) is provided with an attachment interface for the first or second beam (16.1, 16.2), and wherein the ends of the beams (16.1, 16.2) are provided with attachment interfaces compatible with the attachment interfaces in the columns (12.1, 12.2), and wherein adjacent first and second columns (12.1, 12.2) are connected with each other with first and second girders, respectively, and wherein each one of the columns (12.1, 12.2) is provided with an attachment interface for the first or second girder, and wherein the ends of the girders are provided with attachment interfaces compatible with the attachment interfaces of the columns (12.1, 12.2), characterized in that each column (12.1, 12.2) is an elongated part having a rectangular cross section and four planar sides in the longitudinal direction thereof, and each one of the columns (12.1, 12.2) is provided with two similar first type of attachment interfaces arranged to opposite sides of the column (12.1, 12.2) at equal longitudinal position of the column (12.1, 12.2) compatible with the attachment interfaces in the beams (16.1, 16.2). at least two first columns (12.1) arranged in a first line (14.1), and at least two second columns (12.2) arranged in a second line (14.2), wherein the first and the second lines (14.1, 14.2) are arranged parallel to and at a distance from each other, and wherein the successive two columns (12.1) in the first line (14.1) are connected with each other with a first beam (16.1) and the successive two columns (12.2) in the second line (14.2) are connected with each other with a second beam (16.2), and wherein the first columns (12.1) are constructed of at least two parts (12.1', 12.2") and provided with a fabric insertion means there between, and wherein each one of the columns (12.1, 12.2) is provided with an attachment interface for the first or second beam (16.1, 16.2), and wherein the ends of the beams (16.1, 16.2) are provided with attachment interfaces compatible with the attachment interfaces in the columns (12.1, 12.2), and wherein adjacent first and second columns (12.1, 12.2) are connected with each other with first and second girders, respectively, and wherein each one of the columns (12.1, 12.2) is provided with an attachment interface for the first or second girder, and wherein the ends of the girders are provided with attachment interfaces compatible with the attachment interfaces of the columns (12.1, 12.2),
A check valve (100,200) comprising: a valve body having an inlet port, an outlet port and a first seat; a lift mounted on a guide shaft for movement between a closed position in which the lift is retained against the first seat and an open position in which the lift is displaced from the first seat to allow fluid to pass from the inlet port to the outlet port; a first spring for biasing the lift to the closed position; and a back pressure relief valve comprising a ball check valve mounted in a bore through the guide shaft, the bore being open at one end to fluidly communicate with the inlet port and being open at its opposite end to fluidly communicate with the outlet port, and the ball check valve having: a second seat, a ball for movement between a closed position in which the ball is retained against the second seat and an open position in which the ball is displaced from the second seat to allow fluid to pass through the bore, and a second spring for biasing the ball to the closed position, wherein the ball check valve is configured to open when the pressure at the outlet port exceeds the pressure at the inlet port. a valve body having an inlet port, an outlet port and a first seat; a lift mounted on a guide shaft for movement between a closed position in which the lift is retained against the first seat and an open position in which the lift is displaced from the first seat to allow fluid to pass from the inlet port to the outlet port; a first spring for biasing the lift to the closed position; and a back pressure relief valve comprising a ball check valve mounted in a bore through the guide shaft, the bore being open at one end to fluidly communicate with the inlet port and being open at its opposite end to fluidly communicate with the outlet port, and the ball check valve having: a second seat, a ball for movement between a closed position in which the ball is retained against the second seat and an open position in which the ball is displaced from the second seat to allow fluid to pass through the bore, and a second spring for biasing the ball to the closed position, wherein the ball check valve is configured to open when the pressure at the outlet port exceeds the pressure at the inlet port. a second seat, a ball for movement between a closed position in which the ball is retained against the second seat and an open position in which the ball is displaced from the second seat to allow fluid to pass through the bore, and a second spring for biasing the ball to the closed position, wherein the ball check valve is configured to open when the pressure at the outlet port exceeds the pressure at the inlet port.
A method of coding video data, comprising: Receiving input data associated with a current slice in a current picture; determining a temporary reference picture list for the current slice, and including the current picture in the temporary reference picture list when Intra Picture Block Copy, IntraBC, mode is allowed for the current slice, in an initialization stage of reference picture list construction; deriving a final reference picture list from the temporary reference picture list by copying N entries of the temporary reference picture list to the final reference picture list, wherein N is a maximum number of reference pictures allowed in the final reference picture list; adjusting the final reference picture list by setting the current picture to a predefined position of the final reference picture list only if IntraBC mode is allowed for the current slice, an entry number of the temporary reference picture list is greater than N, and reference picture list modification is not used; and encoding or decoding the current slice according to the final reference picture list. Receiving input data associated with a current slice in a current picture; determining a temporary reference picture list for the current slice, and including the current picture in the temporary reference picture list when Intra Picture Block Copy, IntraBC, mode is allowed for the current slice, in an initialization stage of reference picture list construction; deriving a final reference picture list from the temporary reference picture list by copying N entries of the temporary reference picture list to the final reference picture list, wherein N is a maximum number of reference pictures allowed in the final reference picture list; adjusting the final reference picture list by setting the current picture to a predefined position of the final reference picture list only if IntraBC mode is allowed for the current slice, an entry number of the temporary reference picture list is greater than N, and reference picture list modification is not used; and encoding or decoding the current slice according to the final reference picture list.
Blank for assembling a device for packaging at least one windscreen wiper, said blank being of elongate shape and comprising at least two adjacent longitudinal areas (2, 3) that can be articulated to one another via a longitudinal folding line, each longitudinal area (2, 3) being intended to form a longitudinal face (2', 3') of the packaging device, at least one of the longitudinal areas (2, 3) being further articulated at each of its longitudinal ends to an end area (21, 22; 31, 32), via a transverse folding line (5, 6; 7, 8), each end area (21, 22; 31, 32) being adapted to form a substantially transverse end face (21', 31') of the packaging device, said blank being characterized in that it includes, at each of its longitudinal ends, longitudinal shock absorbing means (11, 15, 18) situated at the level of the longitudinal folding line and spaced longitudinally and/or extending to a point spaced longitudinally from the transverse folding line or lines (5, 6; 7, 8) of the corresponding longitudinal end of the blank, said shock absorbing means (11, 15, 18) include one or more slots, orifices, grooves and/or notches.
Fuel/air injection system for internal combustion engines, turbine engines, and other atomisation systems, comprising an injection injector and an injection nozzle with a nozzle body and at least one nozzle hole, a nozzle needle which can be moved in a controlled manner by the injection injector and at least one fuel channel and at least one air channel, the nozzle needle having a sealing surface at its tip, which, in a closed position of the nozzle needle, interacts in a sealing manner with a sealing seat of the injection nozzle, a blind hole for premixing fuel and compressed air being arranged between the tip of the nozzle needle and the at least one nozzle hole in the nozzle body, and both media flowing from the at least one fuel channel in the nozzle body and the at least one air channel in the nozzle needle to this blind hole, wherein the at least one air duct in the nozzle needle is formed by an annular groove, a transverse bore and a longitudinal bore, wherein the nozzle needle is seated at least with its end opposite the tip in a sleeve which is fitted in the nozzle body of the injection nozzle and which has at least one control bore belonging to the air duct and/or at least one control groove, wherein the size of an air volume flow rate flowing through the at least one air duct is adjustable by changing the relative positions of the annular groove of the nozzle needle and the control bore or/and the control groove of the sleeve and wherein the position of the sleeve is adjustable in the axial direction of the nozzle needle.
A method for fabricating a semiconductor device, comprising: a. Providing a structure comprising a first sacrificial layer comprising at least one through-hole exposing a metal surface and optionally an oxide surface, b. Applying a self-assembled monolayer selectively on the exposed metal surface and/or on the oxide surface, c. Growing a metal on the self-assembled monolayer and on the exposed metal surface if no self-assembled monolayer is present thereon, so as to fill the at least one through-hole, thereby forming at least one metal structure, d. Replacing the first sacrificial layer by a replacement dielectric layer having a dielectric constant of at most 3.9. a. Providing a structure comprising a first sacrificial layer comprising at least one through-hole exposing a metal surface and optionally an oxide surface, b. Applying a self-assembled monolayer selectively on the exposed metal surface and/or on the oxide surface, c. Growing a metal on the self-assembled monolayer and on the exposed metal surface if no self-assembled monolayer is present thereon, so as to fill the at least one through-hole, thereby forming at least one metal structure, d. Replacing the first sacrificial layer by a replacement dielectric layer having a dielectric constant of at most 3.9.
Powder composed of spherical noble-metal particles having a particle size distribution, determined as a mass distribution cumulative curve by laser diffraction, with a d 10 value of ≥ 10.0 μm and a d 90 value of ≤ 80.0 μm, wherein the noble metal is platinum, iridium, palladium, ruthenium, rhodium or osmium or an alloy composed of at least two of the aforementioned platinum-group metals.
A method for producing butadiene, the method comprising: a first synthesis step of bringing a mixed gas containing hydrogen and carbon monoxide into contact with a first catalyst to obtain a primary product containing ethanol as an intermediate; a second synthesis step of bringing said primary product into contact with a second catalyst to obtain butadiene; and a first purification step of removing a substance other than said intermediate from said primary product by an apparatus equipped with a separation membrane between said first synthesis step and said second synthesis step, wherein said first synthesis step obtains said primary product as a gas, and said second synthesis step brings said primary product as it is in a gaseous form into contact with said second catalyst. a first synthesis step of bringing a mixed gas containing hydrogen and carbon monoxide into contact with a first catalyst to obtain a primary product containing ethanol as an intermediate; a second synthesis step of bringing said primary product into contact with a second catalyst to obtain butadiene; and a first purification step of removing a substance other than said intermediate from said primary product by an apparatus equipped with a separation membrane between said first synthesis step and said second synthesis step, wherein said first synthesis step obtains said primary product as a gas, and said second synthesis step brings said primary product as it is in a gaseous form into contact with said second catalyst.
An apparatus comprising: a structure (106,200) in the form of a sheet having a first portion (110,208) with a first area and a second portion (112,210) with a second area, and wherein the sheet is bent such that the first portion of the sheet has a shape that conforms to a curved surface of a duct tube, and further wherein the bending of the sheet causes the second portion of the sheet to extend away from the curved surface of the duct tube and away from the first portion of the sheet; and an energy harvesting device (108,201) formed as part of the structure (106,200), wherein the energy harvesting device (108,201) is configured to generate an electrical current when a difference in temperature occurs between the first portion (110,208) and the second portion (112,210); wherein the energy harvesting device takes the form of a thermopile formed on a surface of the sheet such that a first part of the thermopile is formed on the surface of the first portion of the sheet and a second part of the thermopile is formed on the surface of the second portion of the sheet, the thermopile comprising thermocouples connected in series. a structure (106,200) in the form of a sheet having a first portion (110,208) with a first area and a second portion (112,210) with a second area, and wherein the sheet is bent such that the first portion of the sheet has a shape that conforms to a curved surface of a duct tube, and further wherein the bending of the sheet causes the second portion of the sheet to extend away from the curved surface of the duct tube and away from the first portion of the sheet; and an energy harvesting device (108,201) formed as part of the structure (106,200), wherein the energy harvesting device (108,201) is configured to generate an electrical current when a difference in temperature occurs between the first portion (110,208) and the second portion (112,210); wherein the energy harvesting device takes the form of a thermopile formed on a surface of the sheet such that a first part of the thermopile is formed on the surface of the first portion of the sheet and a second part of the thermopile is formed on the surface of the second portion of the sheet, the thermopile comprising thermocouples connected in series.
Printer for card comprising: - a transfer path along which said card moves, - a processing module intended to perform a processing operation on said card, - a flipping device comprising means (9, 2) for driving the card, the flipping device being able to move in rotation between a first position (Fig. 5) in which said drive means (9, 2) are positioned on the transfer path, another first position (Fig. 7) in which said drive means (9, 2) are positioned on the transfer path at 180° with respect to said first position (Fig. 5), and a second position (Fig. 8) in which said drive means (9, 2) are not positioned on the transfer path, and - a motor intended to position the flipping device in said first position (Fig. 5) so as to transfer said card from the processing module to the flipping device, in said other first position (Fig. 7), so as to transfer said card from the flipping device to the processing module, and in the second position (Fig. 8) when the card is processed by the processing module. - a transfer path along which said card moves, - a processing module intended to perform a processing operation on said card, - a flipping device comprising means (9, 2) for driving the card, the flipping device being able to move in rotation between a first position (Fig. 5) in which said drive means (9, 2) are positioned on the transfer path, another first position (Fig. 7) in which said drive means (9, 2) are positioned on the transfer path at 180° with respect to said first position (Fig. 5), and a second position (Fig. 8) in which said drive means (9, 2) are not positioned on the transfer path, and - a motor intended to position the flipping device in said first position (Fig. 5) so as to transfer said card from the processing module to the flipping device, in said other first position (Fig. 7), so as to transfer said card from the flipping device to the processing module, and in the second position (Fig. 8) when the card is processed by the processing module.