mhurhangee/ep-ind-claims huggingface dataset:
Measuring system for data acquisition in soft-field tomography analysis of an object, the measuring system comprises transmitting units (63-i), receiving units (65-j), measuring units (67-j), an excitation unit having a hot spot and a cold spot, a measuring data acquisition unit and a control unit, wherein in the operational state of said measuring system the control unit is operatively connected to the excitation unit and the measuring data acquisition unit to control the excitation unit and the measuring data acquisition unit; the excitation unit is simultaneously connected through its hot spot and cold spot to a transmitting unit (63-i), one at a time, to drive the transmitting units (63-i), the cold spot of the excitation unit corresponds to power ground; at least the transmitting units (63-i) connected to the excitation unit are coupled, one by one, with the object under study to create an excitation field within the object; the receiving units (65-j) are coupled, one by one, with the object under study to detect response upon the excitation field within the object, wherein the receiving units (65-j) are connected together in pairs to form measuring circuits to characterize the response detected by said receiving units (65-j) quantitatively by measurement data, each of the measuring circuits comprises a measuring unit (67-j) with at least a first and a second measuring input for said quantitative characterization, said first and second receiving units of the measuring circuits are connected to the first and second measuring inputs, respectively, of the measuring unit (67-j) in said measuring circuit, and power ground of each of the receiving units (65-j) is connected to the cold spot of said excitation unit; and the measuring units (67-j) of each measuring circuit are connected to the measuring data acquisition unit to acquire the measurement data; characterised in that a reference element is inserted into one of the measuring circuits into between the cold spot of the excitation unit and one of the receiving units (65-j) connected to the cold spot to shift the respective measurement data provided by said respective receiving unit (65-j) connected to the cold spot by an offset value.
A shredder comprising: a housing; a shredder mechanism received in the housing and including an electrically powered motor and cutter elements, the shredder mechanism enabling articles to be shredded to be fed into the cutter elements and the motor being operable to drive the cutter elements so that the cutter elements shred the articles fed therein; the housing having a movable part providing at least part of an opening enabling articles to be fed therethrough into the cutter elements of the shredder mechanism for shredding, the movable part being movable from a first position to a second position and being biased to the first position; a detector (152, 160) configured to detect movement of the movable part to the second position; the movable part being constructed to move from the first position to the second position upon a user attempting to force an article having a thickness greater than a predetermined thickness through the opening; and a controller operable to perform a predetermined operation responsive to the detector detecting that the movable part has moved to the second position; characterized in that the movable part is formed by a pair of walls 150 of the opening 108, wherein at least a portion of one or both walls 150 is moveable downwardly in response to pressure of an inserted article having a thickness greater than the predetermined thickness, thereby triggering the detector. a housing; a shredder mechanism received in the housing and including an electrically powered motor and cutter elements, the shredder mechanism enabling articles to be shredded to be fed into the cutter elements and the motor being operable to drive the cutter elements so that the cutter elements shred the articles fed therein; the housing having a movable part providing at least part of an opening enabling articles to be fed therethrough into the cutter elements of the shredder mechanism for shredding, the movable part being movable from a first position to a second position and being biased to the first position; a detector (152, 160) configured to detect movement of the movable part to the second position; the movable part being constructed to move from the first position to the second position upon a user attempting to force an article having a thickness greater than a predetermined thickness through the opening; and a controller operable to perform a predetermined operation responsive to the detector detecting that the movable part has moved to the second position; characterized in that the movable part is formed by a pair of walls 150 of the opening 108, wherein at least a portion of one or both walls 150 is moveable downwardly in response to pressure of an inserted article having a thickness greater than the predetermined thickness, thereby triggering the detector.
A method of printing a repeating pattern on a web of an extensible material, comprising: a. providing a web of an extensible material; b. determining an adjusted print repeat length profile for a repeating pattern to be printed on said web of extensible material, wherein said adjusted print repeat length profile is utilized to correct anticipated snapback or tension that will occur at locations along a length of said web of extensible material when wound in a roll; and c. printing a repeating pattern on a surface of said web of extensible material, said repeating pattern comprising printed indicia which is repeated along the length of said web, such that the print repeat length of said printed indicia varies along the length of said web in accordance with said adjusted print repeat length profile. a. providing a web of an extensible material; b. determining an adjusted print repeat length profile for a repeating pattern to be printed on said web of extensible material, wherein said adjusted print repeat length profile is utilized to correct anticipated snapback or tension that will occur at locations along a length of said web of extensible material when wound in a roll; and c. printing a repeating pattern on a surface of said web of extensible material, said repeating pattern comprising printed indicia which is repeated along the length of said web, such that the print repeat length of said printed indicia varies along the length of said web in accordance with said adjusted print repeat length profile.
Sealing device for sealing a pressure measurement cell housing, wherein the sealing device has a pressure compensation aperture (23; 23') for a pressure compensation line (21; 21'; 21"; 20) of a pressure measurement cell accommodated in the pressure measurement cell housing, - the sealing device is made of a dimensionally stable hard part (18; 18*; 18') with at least one elastic soft part (19; 19°; 19*; 19') arranged in the area of the pressure compensation aperture (23; 23') on the hard part (18; 18*; 18'), characterised in that the hard part (18; 18*; 18') and the soft part are firmly connected to one another. - the sealing device is made of a dimensionally stable hard part (18; 18*; 18') with at least one elastic soft part (19; 19°; 19*; 19') arranged in the area of the pressure compensation aperture (23; 23') on the hard part (18; 18*; 18'),
An aryloazol-2-yl-cyanoethylamine compound of formula, or a salt thereof, that is enriched in an enantiomer which is the eutomer: P is N; Q is C-R 2 or N; V is N; W is C-R 9; X is C-R 10; Y is C-R 11; R 2 is hydrogen, halogen, C 1 -C 6 -alkyl, C 1 -C 6 -alkoxy, or halo-C 1 -C 6 -alkoxy; R 3, R 4 and R 6 are hydrogen; R 5 is hydrogen, C 1 -C 6 -alkyl, or halo-C 1 -C 6 -alkyl; R 7 is unsubstituted phenyl or phenyl substituted by one or more of halogen, cyano, SF 5, C 1 -C 6 -alkyl, halo-C 1 -C 6 -alkyl, C 1 -C 6 -alkoxy, halo-C 1 -C 6 -alkoxy, C 1 -C 6 -alkylthio, halo-C 1 -C 6 -alkylthio, halo-C 1 -C 6 -alkylsulfinyl or halo-C 1 -C 6 -alkylsulfonyl; R 9, R 10 and R 11 either, independently of one another, are hydrogen, halogen, C 1 -C 6 -alkyl, or halo-C 1 -C 6 -alkyl; Z is C; and a is 1; wherein the term alkyl refers to straight, branched chains and cyclic hydrocarbons; and wherein the weight:weight ratio of the eutomer:distomer is at least approximately 1.5 higher in favour of the eutomer. P is N; Q is C-R 2 or N; V is N; W is C-R 9; X is C-R 10; Y is C-R 11; R 2 is hydrogen, halogen, C 1 -C 6 -alkyl, C 1 -C 6 -alkoxy, or halo-C 1 -C 6 -alkoxy; R 3, R 4 and R 6 are hydrogen; R 5 is hydrogen, C 1 -C 6 -alkyl, or halo-C 1 -C 6 -alkyl; R 7 is unsubstituted phenyl or phenyl substituted by one or more of halogen, cyano, SF 5, C 1 -C 6 -alkyl, halo-C 1 -C 6 -alkyl, C 1 -C 6 -alkoxy, halo-C 1 -C 6 -alkoxy, C 1 -C 6 -alkylthio, halo-C 1 -C 6 -alkylthio, halo-C 1 -C 6 -alkylsulfinyl or halo-C 1 -C 6 -alkylsulfonyl; R 9, R 10 and R 11 either, independently of one another, are hydrogen, halogen, C 1 -C 6 -alkyl, or halo-C 1 -C 6 -alkyl; Z is C; and a is 1;
Dental material comprising a thermolabile polymerisable compound of Formula II: in which Z 1 and Z 2 each independently stand for a polymerisable group selected from vinyl groups, CH 2 =CR 1 -CO-O- and CH 2 =CR 1 -CO-NR 2 - or for an adhesive group selected from -Si 3, -COOH, -O-PO 2, - PO 2, -SO 2 OH and -SH, wherein at least one Z 1 or Z 2 is a polymerisable group, Q 1 each independently is missing or stands for an (m+1)-valent linear or branched aliphatic C 1 -C 20 group which can be interrupted by -O-, -S-, -CO-O-, -O-CO-, -CO-NR 3 - or -NR 3 -CO-, -O-CO-NR 3 -, -NR 3 -CO-O- or -NR 3 -CO-NR 3 -, Q 2 each independently is missing or stands for an (n+1)-valent linear or branched aliphatic C 1 -C 20 group that can be interrupted by -O-, -S-, - CO-O-, -O-CO-, -CO-NR 3 -, -NR 3 -CO-, -O-CO-NR 3 -, -NR 3 -CO-O- or - NR 3 -CO-NR 3 -, R, R 1, R 2 and R 3 each independently stand for H or a C 1 -C 7 alkyl group and R 4 is H or a C 1 -C 10 alkyl group R 5 is H, a C 1 -C 5 alkyl group, F or CN, R 6 is H, a C 1 -C 5 alkyl group, F or CN, m and n are each independently 1, 2 or 3. Z 1 and Z 2 each independently stand for a polymerisable group selected from vinyl groups, CH 2 =CR 1 -CO-O- and CH 2 =CR 1 -CO-NR 2 - or for an adhesive group selected from -Si 3, -COOH, -O-PO 2, - PO 2, -SO 2 OH and -SH, wherein at least one Z 1 or Z 2 is a polymerisable group, Q 1 each independently is missing or stands for an (m+1)-valent linear or branched aliphatic C 1 -C 20 group which can be interrupted by -O-, -S-, -CO-O-, -O-CO-, -CO-NR 3 - or -NR 3 -CO-, -O-CO-NR 3 -, -NR 3 -CO-O- or -NR 3 -CO-NR 3 -, Q 2 each independently is missing or stands for an (n+1)-valent linear or branched aliphatic C 1 -C 20 group that can be interrupted by -O-, -S-, - CO-O-, -O-CO-, -CO-NR 3 -, -NR 3 -CO-, -O-CO-NR 3 -, -NR 3 -CO-O- or - NR 3 -CO-NR 3 -, R, R 1, R 2 and R 3 each independently stand for H or a C 1 -C 7 alkyl group and R 4 is H or a C 1 -C 10 alkyl group R 5 is H, a C 1 -C 5 alkyl group, F or CN, R 6 is H, a C 1 -C 5 alkyl group, F or CN, m and n are each independently 1, 2 or 3.
A system for energy storage comprising: a fluidized bed apparatus with an energy storage material, wherein the energy storage material is provided in volumes coated with an outer layer of solid particles of a different material, wherein the volumes have a largest size in the interval 1-1000 um and wherein the solid particles have a largest size in the interval 1-500 nm, and characterized in that the energy storage material comprises at least one selected from a salt, CaO, Ca 2, CaCO 3, MgO, Mg 2, MgCO 3, and metal hydrides such as MgH 2, wherein the salt is selected from the group consisting of chlorides, bromides, carbonates and nitrates of lithium, magnesium, calcium, nickel, iron, zinc, manganese, and potassium, as well as hydroxides of lithium, sodium and potassium. a fluidized bed apparatus with an energy storage material, wherein the energy storage material is provided in volumes coated with an outer layer of solid particles of a different material, wherein the volumes have a largest size in the interval 1-1000 um and wherein the solid particles have a largest size in the interval 1-500 nm, and characterized in that the energy storage material comprises at least one selected from a salt, CaO, Ca 2, CaCO 3, MgO, Mg 2, MgCO 3, and metal hydrides such as MgH 2, wherein the salt is selected from the group consisting of chlorides, bromides, carbonates and nitrates of lithium, magnesium, calcium, nickel, iron, zinc, manganese, and potassium, as well as hydroxides of lithium, sodium and potassium.
A method, performed in a microwave link controller, for controlling point-to point microwave transmission on a microwave link between a first and a second microwave network node, wherein the microwave link is configured for payload data transmission at a payload data rate, the method comprising: - obtaining information indicative of a current data rate capability of the microwave link; characterized in that the method comprises - comparing the current data rate capability to the configured payload data rate; and - when the current data rate capability is below the configured payload data rate, adapting transmission on the microwave link to comprise transmission of dummy data in lieu of the payload data on the microwave link between the first and second microwave network node. - obtaining information indicative of a current data rate capability of the microwave link; - comparing the current data rate capability to the configured payload data rate; and - when the current data rate capability is below the configured payload data rate, adapting transmission on the microwave link to comprise transmission of dummy data in lieu of the payload data on the microwave link between the first and second microwave network node.
A method of encoding High Efficiency Video Coding - HEVC - video data, the video data comprising a picture partitioned into a plurality of rows of coding tree units - CTUs - the picture being also partitioned into a plurality of slices, each slice of the picture including one or more consecutive CTUs in coding order, each row of CTUs of the picture including portions or entireties of one or more slices, the method comprising: for all slices of all pictures of the video data, in response to determining that a slice begins in a row of CTUs in the picture at a position other than a beginning (126, 134) of the row, encoding CTUs of the slice in coding order without crossing to a subsequent row of CTUs in the picture before reaching the end of the slice, the first CTU in coding order of the subsequent row being the beginning of a different slice; and encoding all slices of all pictures of the video data such that all of the slices that begin at a position other than a beginning of a corresponding row of CTUs also end within the corresponding row of CTUs, wherein the coding order of CTUs is sequentially from left to right in a row of CTUs and progressing to a subsequent row following the rightmost CTU of a row, wherein, for at least one slice, if the first CTU in coding order of the slice is the first CTU in coding order of a row, then encoding the slice such that it includes one or more CTUs of one or more subsequent rows of CTUs. for all slices of all pictures of the video data, in response to determining that a slice begins in a row of CTUs in the picture at a position other than a beginning (126, 134) of the row, encoding CTUs of the slice in coding order without crossing to a subsequent row of CTUs in the picture before reaching the end of the slice, the first CTU in coding order of the subsequent row being the beginning of a different slice; and encoding all slices of all pictures of the video data such that all of the slices that begin at a position other than a beginning of a corresponding row of CTUs also end within the corresponding row of CTUs, wherein the coding order of CTUs is sequentially from left to right in a row of CTUs and progressing to a subsequent row following the rightmost CTU of a row, wherein, for at least one slice, if the first CTU in coding order of the slice is the first CTU in coding order of a row, then encoding the slice such that it includes one or more CTUs of one or more subsequent rows of CTUs.
A dermal and/or cosmetic galenic base whose aqueous phase contains at least two polyols each selected from the group consisting of osides, oses or ose reduction products, and characterized in that two of these polyols are selected from the group of ose reduction products consisting of mannitol and xylitol, and in that a polyol is selected from the group of oses consisting of rhamnose, and in that a polyol is selected from the group of osides consisting of fructooligosaccharides.
An equalization time configuration method, comprising: obtaining a port number of a master chip and an identity of a slave chip, and determining, a type of a channel located between a port of the master chip and the slave chip, wherein the type of the channel located between the port of the master chip and the slave chip is determined based on the port number of the master chip and the identity of the slave chip and wherein the determined channel type is long reach LR or short reach SR; obtaining a physical layer PHY type supported by the master chip and a PHY type supported by the slave chip, and determining whether both the PHY type supported by the master chip and the PHY type supported by the slave chip comprise the determined channel type, wherein each of the PHY type supported by the master chip and the PHY type supported by the slave chip is one of the following three: LR and SR, LR, or SR; when both the PHY type supported by the master chip and the PHY type supported by the slave chip comprise the determined channel type, determining working PHY types of the master chip and the slave chip, wherein both the working PHY types of the master chip and the slave chip are the same as the determined channel type; and configuring an equalization time of the master chip in a third phase of equalization based on the working PHY type of the slave chip, and configuring an equalization time of the slave chip in a fourth phase of the equalization based on the working PHY type of the master chip. obtaining a port number of a master chip and an identity of a slave chip, and determining, a type of a channel located between a port of the master chip and the slave chip, wherein the type of the channel located between the port of the master chip and the slave chip is determined based on the port number of the master chip and the identity of the slave chip and wherein the determined channel type is long reach LR or short reach SR; obtaining a physical layer PHY type supported by the master chip and a PHY type supported by the slave chip, and determining whether both the PHY type supported by the master chip and the PHY type supported by the slave chip comprise the determined channel type, wherein each of the PHY type supported by the master chip and the PHY type supported by the slave chip is one of the following three: LR and SR, LR, or SR; when both the PHY type supported by the master chip and the PHY type supported by the slave chip comprise the determined channel type, determining working PHY types of the master chip and the slave chip, wherein both the working PHY types of the master chip and the slave chip are the same as the determined channel type; and configuring an equalization time of the master chip in a third phase of equalization based on the working PHY type of the slave chip, and configuring an equalization time of the slave chip in a fourth phase of the equalization based on the working PHY type of the master chip.
A microorganism of Escherichia sp. producing O-acetyl homoserine with increased O-acetyl homoserine production capability compared to the parent microorganism producing O-acetyl homoserine, wherein the endogenous activity of citrate synthase is modified to be attenuated or inactivated compared to the parent microorganism producing O-acetyl homoserine.
Hearing instrument (21, 31) comprising a housing (22, 37, 38), a signal processing device (23, 33), a receiver (25, 35, 45) and an antenna (24, 34, 44) for binaural data transmission, wherein the housing (22, 37, 38) is configured such that it can be worn at least partially in an auditory canal, - wherein the housing (22, 37, 38) has a distal section in which the signal processing device (23, 33) and the receiver (25, 35, 45) are arranged, and a proximal section spatially separated therefrom and positioned closest to the eardrum, in which the antenna (24, 34, 44) is arranged, - wherein the diameter and contour of the proximal section are configured such that the proximal section can be positioned in the region of the second bend or deeper in a human auditory canal, - wherein the shape of the proximal section and the arrangement of the antenna (24, 24, 44) in the proximal section are adapted to the auditory canal such that the antenna of the hearing instrument (21, 31) inserted in the auditory canal is aligned with the respective other auditory canal of a wearer of the hearing instrument (21, 31), and - wherein the antenna (24, 34, 44) has a feedthrough with a distal (30, 40, 50) and a proximal (29, 39, 49) opening, which is embodied as a sound channel, while the distal opening (30, 40, 50) is connected to an output of the receiver (25, 35, 45). - wherein the housing (22, 37, 38) has a distal section in which the signal processing device (23, 33) and the receiver (25, 35, 45) are arranged, and a proximal section spatially separated therefrom and positioned closest to the eardrum, in which the antenna (24, 34, 44) is arranged, - wherein the diameter and contour of the proximal section are configured such that the proximal section can be positioned in the region of the second bend or deeper in a human auditory canal, - wherein the shape of the proximal section and the arrangement of the antenna (24, 24, 44) in the proximal section are adapted to the auditory canal such that the antenna of the hearing instrument (21, 31) inserted in the auditory canal is aligned with the respective other auditory canal of a wearer of the hearing instrument (21, 31), and - wherein the antenna (24, 34, 44) has a feedthrough with a distal (30, 40, 50) and a proximal (29, 39, 49) opening, which is embodied as a sound channel, while the distal opening (30, 40, 50) is connected to an output of the receiver (25, 35, 45).
A method for preparing a protocell in form of a giant unilamellar vesicle (36, 66), which comprises the following steps: a) providing a water-based droplet encapsulated by an outer polymer shell, which borders the inner space of the droplet, wherein the droplet has a maximum dimension of 0.5 μm to 1,000 μm, wherein the inner space of the droplet contains at least one lipid, b) transforming the lipid content of the droplet into a lipid bilayer which is arranged at and covers the inner surface of the polymer shell and an oil phase in order to form a polymer shell-stabilized giant unilamellar vesicle, c) optionally incorporating one or more proteins and/or nuclei into the polymer shell-stabilized giant unilamellar vesicle provided in step b) and d) optionally removing the polymer shell from the polymer shell-stabilized giant unilamellar vesicle. a) providing a water-based droplet encapsulated by an outer polymer shell, which borders the inner space of the droplet, wherein the droplet has a maximum dimension of 0.5 μm to 1,000 μm, wherein the inner space of the droplet contains at least one lipid, b) transforming the lipid content of the droplet into a lipid bilayer which is arranged at and covers the inner surface of the polymer shell and an oil phase in order to form a polymer shell-stabilized giant unilamellar vesicle, c) optionally incorporating one or more proteins and/or nuclei into the polymer shell-stabilized giant unilamellar vesicle provided in step b) and d) optionally removing the polymer shell from the polymer shell-stabilized giant unilamellar vesicle.