mhurhangee/ep-ind-claims huggingface dataset:
Hole conductor layer for organic electronic components, in which a dopant comprising a mononuclear square-planar transition metal complex comprising a central atom and ligands has been introduced into a hole conductor matrix, where the transition metal complex has the following formula: where: Y 1, Y 2 each independently consist of N, C-R or C- H, X 1 and X 2 are each independently O or N-R, R, R 1b and R 2b are each independently unbranched, branched, fused, cyclic or fully or partly substituted C 1 -C 20 -alkyl radicals, substituted or unsubstituted aromatics and heterocycles, R 1a and R 2a are each independently fully or partly substituted C 1 -C 20 -alkyl radicals which contain halogens or correspond to one of the formulae 3.3a, 3.3b or 3.3c or where in formula 3.3b o = 1-5 and formulae 3.3c are fully or partly fluorinated systems, where R 1 to R 7 are each independently H or F. Y 1, Y 2 each independently consist of N, C-R or C- H, X 1 and X 2 are each independently O or N-R, R, R 1b and R 2b are each independently unbranched, branched, fused, cyclic or fully or partly substituted C 1 -C 20 -alkyl radicals, substituted or unsubstituted aromatics and heterocycles, R 1a and R 2a are each independently fully or partly substituted C 1 -C 20 -alkyl radicals which contain halogens or correspond to one of the formulae 3.3a, 3.3b or 3.3c or where in formula 3.3b o = 1-5 and formulae 3.3c are fully or partly fluorinated systems, where R 1 to R 7 are each independently H or F.
An electric vehicle including a plurality of ground engaging members (14, 16); a chassis supported by the plurality of ground engaging members (14, 16); an electric motor supported by the chassis; a drive train supported by the chassis and operative to provide power from the electric motor to at least one ground engaging member; a frame assembly supported by the plurality of ground engaging members (14, 16), the frame assembly including a front frame module, a middle frame module, and a rear frame module; a seating area supported by the middle frame module; a plurality of batteries operative to provide energy to the electric motor; the front frame module being fastened to a front portion of the middle frame module, the rear frame module being fastened to a rear portion of the middle frame module, and the middle frame module being interchangeable with at least one other middle frame module to change a length of the vehicle; characterized in that the middle frame module comprises a floor frame which further includes a pair of rear frame members coupled to and extending longitudinally from a rear beam of the floor frame, and a battery tray supported on the rear frame member.
Protective sleeve for an endoscope comprising an endoscope tube, wherein the protective sleeve includes a tubular main body for receiving a distal portion of the endoscope tube, wherein the main body comprises an open proximal end and a cover glass at the distal end, the cover glass comprises a spherically curved, concave inside, a spherically curved, convex outside and a constant thickness and wherein a second transparent region spaced apart from the cover glass for illumination light of the endoscope is provided at the distal end of the main body and the region between the cover glass and the second transparent region is formed as a non-transparent region at the distal end, characterized in that the second transparent region comprises in at least one direction a spherically curved, concave inside, a spherically curved, convex outside as well as a constant thickness.
A system comprising: a non-volatile resistive memory (100; 401) comprising a plurality of pages (P i,j,k); and a control circuit capable of performing user accesses to the memory and of implementing a memory wear management method, characterized in that the control circuit is configured for performing, between first and second consecutive operations of reading from or writing into a page (P i,j,k) of the wear balancing method, and between the second operation and a third consecutive operation of reading from or writing into a page (P i,j,k) of the wear balancing method, one or a plurality of user accesses to pages (P i,j,k) of the memory, no other operation of reading or writing of a page of the wear balancing method being realized between the first and second operations and between the second and third operations, an in that the system further comprised intermediate data storage elements (REGA, REGB), the control circuit being configured for, on implementation of the wear management method, temporarily storing memory data into said storage elements (REGA, REGB) and, when a read or write user access occurs, verifying whether the data targeted by the user are contained in said storage elements (REGA, REGB) and, if they are, processing the user access directly in said storage elements (REGA, REGB). a non-volatile resistive memory (100; 401) comprising a plurality of pages (P i,j,k); and a control circuit capable of performing user accesses to the memory and of implementing a memory wear management method, characterized in that the control circuit is configured for performing, between first and second consecutive operations of reading from or writing into a page (P i,j,k) of the wear balancing method, and between the second operation and a third consecutive operation of reading from or writing into a page (P i,j,k) of the wear balancing method, one or a plurality of user accesses to pages (P i,j,k) of the memory, no other operation of reading or writing of a page of the wear balancing method being realized between the first and second operations and between the second and third operations, an in that the system further comprised intermediate data storage elements (REGA, REGB), the control circuit being configured for, on implementation of the wear management method, temporarily storing memory data into said storage elements (REGA, REGB) and, when a read or write user access occurs, verifying whether the data targeted by the user are contained in said storage elements (REGA, REGB) and, if they are, processing the user access directly in said storage elements (REGA, REGB).
A method, implemented by one or more processors, for identifying a group of voxels associated with tissue affected by a disease, the method comprising: receiving imaging data corresponding to three-dimensional scans of organ tissue, the imaging data based on a comparison between one or more contrast medium enhanced scans of a patient and one or more non-contrast medium enhanced scans of the patient; processing voxels of the imaging data to identify one or more modes (130, 132, 134) from the imaging data, wherein the one or more modes are identified from one or more distributions (122, 124, 126) of enhancement values of the voxels over ranges of the enhancement values, wherein a mode is a value or a range of values that are most common within a range of the enhancement values; generating a region of interest (110, 112, 114) for a mode voxel (116, 118, 120) corresponding to the determined one or more modes, wherein the region of interest identifies a volume of data, being a portion of the imaging data, corresponding to a region surrounding the mode voxel; generating a tissue threshold value for the enhancement values based on standard deviations of the enhancement values for voxels within the region of interest; and identifying a group of voxels corresponding to threshold enhancement values that satisfy the tissue threshold value. receiving imaging data corresponding to three-dimensional scans of organ tissue, the imaging data based on a comparison between one or more contrast medium enhanced scans of a patient and one or more non-contrast medium enhanced scans of the patient; processing voxels of the imaging data to identify one or more modes (130, 132, 134) from the imaging data, wherein the one or more modes are identified from one or more distributions (122, 124, 126) of enhancement values of the voxels over ranges of the enhancement values, wherein a mode is a value or a range of values that are most common within a range of the enhancement values; generating a region of interest (110, 112, 114) for a mode voxel (116, 118, 120) corresponding to the determined one or more modes, wherein the region of interest identifies a volume of data, being a portion of the imaging data, corresponding to a region surrounding the mode voxel; generating a tissue threshold value for the enhancement values based on standard deviations of the enhancement values for voxels within the region of interest; and identifying a group of voxels corresponding to threshold enhancement values that satisfy the tissue threshold value.
. A method for identifying operating conditions of a system, the method comprising: applying input data to a multi-class model for classification, wherein the input data relate to operation of the system, and wherein the multi-class model is configured for classifying the data into one of a plurality of predefined classes, each class corresponding to a respective operating condition of the system; determining a confidence level of the classification by the multi-class model; if the confidence level is below a threshold confidence level, applying the input data to a plurality of binary models, each binary model being configured for determining whether the data is or is not in a respective one of the predefined classes; and if the plurality of binary models determine that the data is not in any of said respective predefined classes, taking said data into consideration when updating the multi-class model. applying input data to a multi-class model for classification, wherein the input data relate to operation of the system, and wherein the multi-class model is configured for classifying the data into one of a plurality of predefined classes, each class corresponding to a respective operating condition of the system; determining a confidence level of the classification by the multi-class model; if the confidence level is below a threshold confidence level, applying the input data to a plurality of binary models, each binary model being configured for determining whether the data is or is not in a respective one of the predefined classes; and if the plurality of binary models determine that the data is not in any of said respective predefined classes, taking said data into consideration when updating the multi-class model.
A method for changing the consistency of a fibre suspension sample for a process including fibre suspension, the method comprising receiving a fibre suspension sample from at least one process part to at least one sample line, characterized by performing in each sample line, feeding feed liquid to the sample line for pushing the sample of known consistency forward in the sample line towards at least one mixer (212, 214) by the feed liquid, feeding dilution liquid to at least one mixer (212, 214) which is a tube with mechanical parts configured to impede the flow which mixes the sample and the dilution liquid and which is a part of the sample line, and mixing the sample flowing through the at least one mixer (212, 214) and the dilution liquid with one another in order to reduce the consistency of the sample in the at least one mixer (212, 214).
A distortion compensation apparatus comprising: a storage unit configured to store a distortion compensation coefficient; a distortion-compensation-coefficient selecting unit configured to take a logarithm of power of an input signal and to exponentiate a value obtained by taking the logarithm, and configured to select a distortion compensation coefficient that is stored in the storage unit according to a value obtained by the exponentiating; a distortion-compensation processing unit configured to acquire the selected distortion compensation coefficient from the storage unit, and to perform distortion compensation processing on the input signal to the distortion-compensation-coefficient selecting unit using the acquired distortion compensation coefficient; an amplifier configured to amplifie the signal subjected to the distortion compensation processing; and a distortion-compensation-coefficient updating unit configured to update the distortion compensation coefficient stored in the storage unit based on the amplified signal and the input signal to the distortion-compensation-coefficient selecting unit. a storage unit configured to store a distortion compensation coefficient; a distortion-compensation-coefficient selecting unit configured to take a logarithm of power of an input signal and to exponentiate a value obtained by taking the logarithm, and configured to select a distortion compensation coefficient that is stored in the storage unit according to a value obtained by the exponentiating; a distortion-compensation processing unit configured to acquire the selected distortion compensation coefficient from the storage unit, and to perform distortion compensation processing on the input signal to the distortion-compensation-coefficient selecting unit using the acquired distortion compensation coefficient; an amplifier configured to amplifie the signal subjected to the distortion compensation processing; and a distortion-compensation-coefficient updating unit configured to update the distortion compensation coefficient stored in the storage unit based on the amplified signal and the input signal to the distortion-compensation-coefficient selecting unit.
Fixing arrangement for attaching a lining framework of frame elements to a structural element, at a distance from an insulated wall or roof, said fixing arrangement comprising a device and a support, wherein the device and the support are designed to receive a membrane, the support comprising a bearing surface (201, 201a, 201b, 520) for the membrane and at least one recess (211a, 211b, 532a, 532b, 240) adapted to receive the membrane, the device being designed to be locked onto the support comprising at least one lever (110a, 110b), with each of the at least one lever (110a, 110b) comprising a projecting part (111a, 111b) designed to fit with the corresponding at least one recess (211a, 211b, 532a, 532b, 241a, 241b) in the support, wherein the attachment is obtainable by locking the projecting part (111a, 111b) of the at least one lever (110a, 110b) in the corresponding at least one recess (211a, 211b, 532a, 532b, 241a, 241b), the at least one recess (211a, 211b, 532a, 532b, 240) and the projecting part (111a, 111b) being designed such that the membrane can be clipped and/or clamped between the recess (211a, 211b, 532a, 532b, 240) and the projecting part (111a, 111b), wherein the device is equipped with attachment means (121a, 121b) for a frame element and characterised in that the support comprises an elongated strut, preferably a panel or a rod, the first end of which comprises means for attachment to a structural element.
A process for forming electrical contacts for a semiconductor light emitting apparatus, the light emitting apparatus comprises a generally rectangular semiconductor structure (100, 195) having a first layer of first conductivity type, an active layer for generating light overlying the first layer, and a second layer of second conductivity type overlying the active layer, the process comprising: forming at least a first elongate electrical contact along a first peripheral edge of the semiconductor structure, and forming at least a second elongate electrical contact along a second, adjacent, peripheral edge of the semiconductor structure, forming the first and second elongate electrical contacts through the second layer and the active layer to provide electrical connection to the first layer, said first contact having a first end in proximity with a first end of said second contact and both first ends (112, 120) proximate a first corner of the semiconductor structure, said first end of the first contact being sufficiently spaced apart from said first end of the second contact such that when current is supplied to the first layer through said contacts current contributions from said first end of said first contact and said first end of said second contact in a second unit area generally between both first ends (112, 120) cause a current density in said area that is approximately equal to a current density in a first unit area along said first or second contacts forming at least a first elongate electrical contact along a first peripheral edge of the semiconductor structure, and forming at least a second elongate electrical contact along a second, adjacent, peripheral edge of the semiconductor structure, forming the first and second elongate electrical contacts through the second layer and the active layer to provide electrical connection to the first layer, said first contact having a first end in proximity with a first end of said second contact and both first ends (112, 120) proximate a first corner of the semiconductor structure, said first end of the first contact being sufficiently spaced apart from said first end of the second contact such that when current is supplied to the first layer through said contacts current contributions from said first end of said first contact and said first end of said second contact in a second unit area generally between both first ends (112, 120) cause a current density in said area that is approximately equal to a current density in a first unit area along said first or second contacts
A protein consisting of a DNA binding domain targeting a DNA regulatory sequence of the gene RHO wherein the targeting of the DNA regulatory sequence induces the repression of the expression of said gene and wherein the protein consists essentially of a sequence selected from the group consisting of: MIDLEPGEKPYKCPECGKSFSQSGHLTEHQRTHTGEKPYKCPECGKSFSQNSTLTEHQRTHTGEKPYKCPECGKSFSTSGHLVRHQRTHQNKKGGSGDGKKKQHACPECGKSFSREDNLHTHQRTHTGEKPYKCPECGKSFSTSGHLVRHQRTHTGEKPYKCPECGKSFSRSDKLVRHQRTHTGKKTSSRYPYDVPDYAS (SEQ ID No. 3), SEQ ID No. 13, SEQ ID No. 15 and SEQ ID No. 17 or a functional fragment thereof wherein said fragment maintains the ability to recognize the DNA regulatory sequence for use in the treatment of an autosomal dominant inherited eye disease.
A method of varying an annular fan exit throat area of a gas turbine engine, the annular fan exit throat area defined between a fan nacelle and a core nacelle at least partially within said fan nacelle, the method comprising the steps of: asymmetrically adjusting a first flap assembly segment (44A...44D) relative a second flap assembly segment (44A...44D) to adjust the annular fan exit throat area, each of the flap assembly segments (44A... 44D) comprising at least one flap with a hinge beam rod coupled to said at least one flap, the flap assembly segments (44A...44D) being pivotally mounted to a static ring mounted to the fan nacelle, the asymmetrical adjustment comprising independently rotating synchronizing ring segments (40A... 40D) of a synchronizing ring assembly relative said static ring to independently adjust said first and second flap assembly segments (44A... 44D), wherein each hinge beam rod extends through said static ring and engages a slider block moveable within each of a multitude of slots defined within said synchronizing ring segments (40A... 40D). asymmetrically adjusting a first flap assembly segment (44A...44D) relative a second flap assembly segment (44A...44D) to adjust the annular fan exit throat area, each of the flap assembly segments (44A... 44D) comprising at least one flap with a hinge beam rod coupled to said at least one flap, the flap assembly segments (44A...44D) being pivotally mounted to a static ring mounted to the fan nacelle, the asymmetrical adjustment comprising independently rotating synchronizing ring segments (40A... 40D) of a synchronizing ring assembly relative said static ring to independently adjust said first and second flap assembly segments (44A... 44D), wherein each hinge beam rod extends through said static ring and engages a slider block moveable within each of a multitude of slots defined within said synchronizing ring segments (40A... 40D).
An upper tool stocker for detachably supporting a plurality of divided upper tools for a press brake, the upper tool stocker comprising a stocker main body extending in a left-right direction, and provided with a left-right directional installing groove, attachment portions provided in upper portions of the divided upper tools being detachably installed in the installing groove, characterized in that the stocker main body includes a front-back directional cutout (101A, 101B, 101C, 101D) communicated with the installing groove to remove the divided upper tools downward or in the front-back direction from the installing groove. a stocker main body extending in a left-right direction, and provided with a left-right directional installing groove, attachment portions provided in upper portions of the divided upper tools being detachably installed in the installing groove, characterized in that the stocker main body includes a front-back directional cutout (101A, 101B, 101C, 101D) communicated with the installing groove to remove the divided upper tools downward or in the front-back direction from the installing groove.
A photovoltaic module backplane, the photovoltaic module backplane comprising an insulating layer, a reflective layer, a first decorative layer and a first transparent protective layer which are stacked in sequence, wherein matrix resins of the reflective layer and the first decorative layer are fluorine-containing resins.
A dispersant comprising: 0.5 to 30% by weight of compound selected from acetylene glycols represented by formula: wherein R 1 and R 2 each represent C 1 -C 5 alkyl group, and ethoxylated acetylene glycols represented by formula: wherein R 3 and R 4 each represent C 1 -C 5 alkyl group, m and n are positive numbers of 0.5 to 25, and m + n is 1 to 40; 5 to 98% by weight of nonionic aryl phenol compound represented by formula: wherein a is an integer of 1 to 4, b is an integer of 1 to 30 and R 5 is aryl group; and 1 to 70% by weight of anionic aryl phenol compound represented by formula: wherein c is an integer of 1 to 4, d is an integer of 1 to 30, R 6 is aryl group and R 7 is an anionic group, and wherein the total amount of components to is 100% by weight. 0.5 to 30% by weight of compound selected from acetylene glycols represented by formula: wherein R 1 and R 2 each represent C 1 -C 5 alkyl group, and ethoxylated acetylene glycols represented by formula: wherein R 3 and R 4 each represent C 1 -C 5 alkyl group, m and n are positive numbers of 0.5 to 25, and m + n is 1 to 40; 5 to 98% by weight of nonionic aryl phenol compound represented by formula: wherein a is an integer of 1 to 4, b is an integer of 1 to 30 and R 5 is aryl group; and 1 to 70% by weight of anionic aryl phenol compound represented by formula: wherein c is an integer of 1 to 4, d is an integer of 1 to 30, R 6 is aryl group and R 7 is an anionic group, and wherein the total amount of components to is 100% by weight.