mhurhangee/ep-ind-claims huggingface dataset:
An imaging system comprising: a computer tomography imager; an imager translation mechanism arranged to translate said CT imager along a predetermined translation axis in each of a first direction and a second direction responsive to a provided electrical power, said predetermined translation axis exhibiting an imaging angle (α) with the floor of a room which contains the imaging system, said imaging angle between translation axis and floor being less than 90 degrees and greater than 0 degrees; said first direction being toward the floor along said translation axis, said second direction opposing said first direction; characterized in that the imaging system further comprises: a piston translation mechanism; a counterweight arranged to translate along a counterweight axis, said counterweight arranged to provide counterbalance to said CT imager; and a piston power mechanism arranged to provide motive power to said piston translation mechanism, wherein said piston translation mechanism is arranged to translate said CT imager in said second direction responsive to said provided motive power in the absence of the provided electrical power, and wherein said arrangement of said piston translation mechanism to translate said CT imager in said second direction comprises translating said counterweight along said counterweight axis and as a result CT imager 20 is translated in said second direction. a computer tomography imager; an imager translation mechanism arranged to translate said CT imager along a predetermined translation axis in each of a first direction and a second direction responsive to a provided electrical power, said predetermined translation axis exhibiting an imaging angle (α) with the floor of a room which contains the imaging system, said imaging angle between translation axis and floor being less than 90 degrees and greater than 0 degrees; said first direction being toward the floor along said translation axis, said second direction opposing said first direction; a piston translation mechanism; a counterweight arranged to translate along a counterweight axis, said counterweight arranged to provide counterbalance to said CT imager; and a piston power mechanism arranged to provide motive power to said piston translation mechanism, wherein said piston translation mechanism is arranged to translate said CT imager in said second direction responsive to said provided motive power in the absence of the provided electrical power, and wherein said arrangement of said piston translation mechanism to translate said CT imager in said second direction comprises translating said counterweight along said counterweight axis and as a result CT imager 20 is translated in said second direction.
A welding device for applying weld material between two work pieces (P1, P2) so as to connect the work pieces (P1, P2) mechanically with one another, the device comprising: a welding head configured to perform a welding action in respect of the work pieces (P1, P2) during transport of the device along an operating direction, and two primary sensor members (S R, S L) arranged upstream of the welding head relative to the operating direction during said transport, the primary sensor members (S R, S L) being configured to register geometric properties of a spacing between the work pieces (P1, P2) in which spacing the weld material is to be applied, and each primary sensor member (S R; S L) being configured to be in contact with a respective wall (W1, W2) of the two work pieces (P1, P2) adjoining said spacing, a proximal end (S Rp; S Lp) of each primary sensor member (S R, S L) being pivotably attached to a central element of the device, and each primary sensor member (S R, S L) comprising a distal end (S Rd; S Ld) configured to maintain contact with the respective adjoining wall (W1; W2) during transport of the device along the operating direction while allowing variation of lateral distances (d R, d L) between the central element and the adjoining walls, characterized in that the central element comprises one pivoting axis around which both the two primary sensor members (S R, S L) are configured to be pivoted, and the pivoting axis is oriented essentially perpendicular to the operating direction. a welding head configured to perform a welding action in respect of the work pieces (P1, P2) during transport of the device along an operating direction, and two primary sensor members (S R, S L) arranged upstream of the welding head relative to the operating direction during said transport, the primary sensor members (S R, S L) being configured to register geometric properties of a spacing between the work pieces (P1, P2) in which spacing the weld material is to be applied, and each primary sensor member (S R; S L) being configured to be in contact with a respective wall (W1, W2) of the two work pieces (P1, P2) adjoining said spacing, a proximal end (S Rp; S Lp) of each primary sensor member (S R, S L) being pivotably attached to a central element of the device, and each primary sensor member (S R, S L) comprising a distal end (S Rd; S Ld) configured to maintain contact with the respective adjoining wall (W1; W2) during transport of the device along the operating direction while allowing variation of lateral distances (d R, d L) between the central element and the adjoining walls, characterized in that the central element comprises one pivoting axis around which both the two primary sensor members (S R, S L) are configured to be pivoted, and the pivoting axis is oriented essentially perpendicular to the operating direction.
A meat cutlet flattener made of at least partly plastic material for the automatic, controlled flattening of cutlets, in particular raw cutlets, having - a base frame, - a cutlet conveyor with a bearing surface, - at least one flattener element arranged above the bearing surface of the cutlet conveyor and movable up and down, - wherein multiple punches (1 - 6) arranged one behind the other in the direction of passage are present as flattener elements (1 - 6), and - at least one punch drive for the punches (1 - 6) is present. characterised in that - the bearing surface conveys the cutlets in the direction of passage and through the flattener, - the punches (1 - 6) are driven up and down, pounding the cutlet as they move in the downward direction and thereby flattening the cutlet. - a base frame, - a cutlet conveyor with a bearing surface, - at least one flattener element arranged above the bearing surface of the cutlet conveyor and movable up and down, - wherein multiple punches (1 - 6) arranged one behind the other in the direction of passage are present as flattener elements (1 - 6), and - at least one punch drive for the punches (1 - 6) is present. characterised in that - the bearing surface conveys the cutlets in the direction of passage and through the flattener, - the punches (1 - 6) are driven up and down, pounding the cutlet as they move in the downward direction and thereby flattening the cutlet.
A compound comprising an unsaturated or polyunsaturated fatty acid having an aliphatic chain comprising an odd number of carbons and one or more electron withdrawing groups selected from the group consisting of aldehyde (-COH), acyl (-COR), carbonyl (-CO), carboxylic acid (-COOH), ester (-COOR), 1°, 2° and 3° ammonium (-NR 3 +), and nitro (-NO 2), wherein R is a hydrogen, methyl or C 2 -C 6 alkyl, and wherein at least one electron withdrawing group is positioned on an alpha, beta or gamma carbon of at least one carbon-carbon double bond of the unsaturated or polyunsaturated fatty acid, or a pharmaceutically acceptable salt thereof.
A washing machine comprising a washing tub configured to be opened and closed by a door formed in one surface of the washing tub, the washing machine being configured to perform at least one of a wash cycle, a rinse cycle, a spin-dry cycle, or a dry cycle, wherein the washing machine comprises: a concentration sensing part configured to sense a concentration of at least one specific component in the air measured inside and/or outside the washing tub; a controller configured to switch the door and the washing tub to a safe mode based on the concentration of the at least one specific component sensed by the concentration sensing part, wherein the safe mode is a mode in which an operation of the washing machine is restricted, and wherein the concentration sensing part is configured to sense at least one concentration of at least one of oxygen or carbon dioxide. a concentration sensing part configured to sense a concentration of at least one specific component in the air measured inside and/or outside the washing tub; a controller configured to switch the door and the washing tub to a safe mode based on the concentration of the at least one specific component sensed by the concentration sensing part, wherein the safe mode is a mode in which an operation of the washing machine is restricted, and wherein the concentration sensing part is configured to sense at least one concentration of at least one of oxygen or carbon dioxide.
An adjustable leg comprising inner and outer leg parts (12 and 16) the inner leg part of which is slidable within the outer leg part to enable the leg to be telescopically adjustable in length, there being a locking member provided with an aperture through which the inner leg part passes, which locking member is held directly or indirectly on the outer leg part and is resiliently urged to adopt an angle with regard to the inner leg part so that edge portions defining the aperture engage the inner leg part and hold it in position relative to the outer leg part, in which the adjustable leg is provided with a second locking member which is moveable into and out of engagement with the said inner leg part, the first-mentioned locking member and the second locking member being provided with mutually engageable portions by which movement of the first-mentioned locking member out of engagement with the inner leg part causes movement of the second locking member out of engagement with the said inner leg part, characterised in that the inner leg part is provided with an engagement portion to facilitate engagement between the second locking member and the inner leg part, said engagement portion comprises an aperture or recess which receives an end portion of the second locking member when the latter is in engagement with the inner leg part.
A method of making In (1-x) Ga x P nanostructures, wherein 0<x<1, comprising: (a) admixing InP nanostructures comprising at least one sulfur-containing ligand and a halide salt mixture, wherein to dissolve the InP nanostructures in the halide salt mixture, the InP nanostructures are ground with the halide salt mixture and heated at a temperature between about 250°C and 450°C to form a molten mixture; (b) admixing the molten mixture obtained in (a) with a gallium source at a temperature between about 290°C and 380°C; to provide the In (1-x) Ga x P nanostructures. (a) admixing InP nanostructures comprising at least one sulfur-containing ligand and a halide salt mixture, wherein to dissolve the InP nanostructures in the halide salt mixture, the InP nanostructures are ground with the halide salt mixture and heated at a temperature between about 250°C and 450°C to form a molten mixture; (b) admixing the molten mixture obtained in (a) with a gallium source at a temperature between about 290°C and 380°C;
A compound represented by general formula or a pharmacologically acceptable salt thereof, or a hydrate of the compound or pharmacologically acceptable salt thereof: wherein each substituent is as defined below: R 1: a C1-6 alkyl group, a C1-6 alkoxy C1-6 alkyl group, a C3-6 cycloalkyl group, or a C3-6 cycloalkyl C1-6 alkyl group, R 2: a hydrogen atom or a halogen group, R 3: a hydrogen atom, a halogen group, a halogeno C1-6 alkyl group, a halogeno C1-6 alkoxy group, a C2-5 saturated cyclic amino group, a di-C1-6 alkylamino group, a C3-6 cycloalkyl C1-6 alkoxy group, or a C1-6 alkoxy group, A: a C3-6 cycloalkyl ring, X: CH or N, Y: CH or N, Z: CH or N, and n: an integer selected from 1, 2, 3, and 4. R 1: a C1-6 alkyl group, a C1-6 alkoxy C1-6 alkyl group, a C3-6 cycloalkyl group, or a C3-6 cycloalkyl C1-6 alkyl group, R 2: a hydrogen atom or a halogen group, R 3: a hydrogen atom, a halogen group, a halogeno C1-6 alkyl group, a halogeno C1-6 alkoxy group, a C2-5 saturated cyclic amino group, a di-C1-6 alkylamino group, a C3-6 cycloalkyl C1-6 alkoxy group, or a C1-6 alkoxy group, A: a C3-6 cycloalkyl ring, X: CH or N, Y: CH or N, Z: CH or N, and n: an integer selected from 1, 2, 3, and 4.
A gear shift arrangement for a transmission arrangement of a vehicle, the gear shift arrangement comprising an axially movable first connecting mechanism connectable to a first gear wheel for engagement of a first gear of the transmission arrangement; an axially movable second connecting mechanism connectable to a second gearwheel for engagement of a second gear of the transmission arrangement; an actuator arrangement configured to controllably connect the first connecting mechanism and the first gear wheel to each other, and to controllably connect the second connecting mechanism and the second gear wheel to each other, whereby the first connecting mechanism comprises a first connector element, the second connecting mechanism comprises a second connector element and the actuator arrangement comprises an actuator connector element, wherein the gear shift arrangement further comprises means for selectively connecting the actuator connector element to the first and second connector characterized in that the second connector element is at least partially enclosing the actuator connector element, and the actuator connector element at least partially enclosing the first connector element.
A joined body comprising: a joining portion constituted by a shaped product, a composite substrate and a shaped product which are laminated in this order, wherein the composite substrate contains a plurality of multifilaments of an organic material and a thermoplastic resin, and the shaped products and each contain a carbon fiber and a resin, and wherein (i) the composite substrate includes an impregnation portion in which a space between the multifilaments are impregnated with the thermoplastic resin and a non-impregnation portion in which an inside of a multifilament is not impregnated with the thermoplastic resin, (ii) the composite substrate has a penetration portion which penetrates the composite substrate in a thickness direction, and (iii) the shaped products and are contacted with and fixed through the penetration portion of the composite substrate. (i) the composite substrate includes an impregnation portion in which a space between the multifilaments are impregnated with the thermoplastic resin and a non-impregnation portion in which an inside of a multifilament is not impregnated with the thermoplastic resin, (ii) the composite substrate has a penetration portion which penetrates the composite substrate in a thickness direction, and (iii) the shaped products and are contacted with and fixed through the penetration portion of the composite substrate.
A package integrity feature defined by an inner film layer of a package, the package integrity feature comprising: a first die cut portion extending from a main die cut portion, wherein the main die cut portion at least partially defines an opening of the package; and a second die cut portion extending from the main die cut portion, wherein the first and second die cut portions (52, 54) are continuous with each other and with the main die cut portion, characterized in that the first and second die cut portions (52, 54) define: a neck region of the package integrity feature having a reduced width and configured to tear as an opening force is applied to the package by a user, wherein tearing of the neck region provides access, via the opening, to contents stored within the package in a tamper evident manner, and an anchor region configured to resist the opening force applied by the user such that the neck region tears in response to application of the opening force, wherein the anchor region is circular or elliptical. a first die cut portion extending from a main die cut portion, wherein the main die cut portion at least partially defines an opening of the package; and a second die cut portion extending from the main die cut portion, wherein the first and second die cut portions (52, 54) are continuous with each other and with the main die cut portion, characterized in that the first and second die cut portions (52, 54) define: a neck region of the package integrity feature having a reduced width and configured to tear as an opening force is applied to the package by a user, wherein tearing of the neck region provides access, via the opening, to contents stored within the package in a tamper evident manner, and an anchor region configured to resist the opening force applied by the user such that the neck region tears in response to application of the opening force, wherein the anchor region is circular or elliptical. a neck region of the package integrity feature having a reduced width and configured to tear as an opening force is applied to the package by a user, wherein tearing of the neck region provides access, via the opening, to contents stored within the package in a tamper evident manner, and an anchor region configured to resist the opening force applied by the user such that the neck region tears in response to application of the opening force, wherein the anchor region is circular or elliptical.
A compound represented by formula II: wherein Q is S, NH, or O; Z is CH or N; A is substituted or unsubstituted phenyl; substituted or unsubstituted indolyl; or substituted or unsubstituted indazolyl; wherein the optional substituents of A include O-alkyl, O-haloalkyl, F, Cl, Br, I, NO 2, haloalkyl, CF 3, CN, -CH 2 CN, NH 2, hydroxyl, -(CH 2) i NHCH 3, -(CH 2) i NH 2, -(CH 2) i N(CH 3) 2, -OC CF 3, -SO 2 -aryl, C 1 -C 5 linear or branched alkyl, alkylamino, aminoalkyl, -OCH 2 Ph, -NHCO-alkyl, COOH, -C Ph, C O-alkyl, C H, -C NH 2 or a combination thereof; R 1 is independently hydrogen, O-alkyl, O-haloalkyl, F, Cl, Br, I, haloalkyl, CF 3, CN, NO 2, -CH 2 CN, NH 2, hydroxyl, COOH, C H, NHCO-alkyl, -O(CH 2) j OCH 3, -O(CH 2)OH, -O(CH 2) j NHCH 3, -O(CH 2) j NH 2, -O-(CH 2) j (CH 3) 2, -OC CF 3, -OC CH 2 Cl, -OCH 2 Ph, -O(CH 2) j N-phthalimide or a combination thereof; R 2 is O-alkyl, O-haloalkyl, Cl, Br, I, haloalkyl, CF 3, CN, NO 2, -CH 2 CN, NH 2, hydroxyl, COOH, C H, NHCO-alkyl, -O(CH 2) k OCH 3, -O(CH 2) k OH, -O(CH 2) k NHCH 3, -O(CH 2) k NH 2, -O-(CH 2) k N(CH 3) 2, -OC CF 3, -OC CH 2 Cl, -OCH 2 Ph, or -O(CH 2) k N-phthalimide; i, j, and k are independently an integer between 0 to 5; n is an integer between 1 to 4; or a hydrate, optical isomer, N -oxide, pharmaceutically acceptable salt, polymorph, or a combination thereof. Q is S, NH, or O; Z is CH or N; A is substituted or unsubstituted phenyl; substituted or unsubstituted indolyl; or substituted or unsubstituted indazolyl; wherein the optional substituents of A include O-alkyl, O-haloalkyl, F, Cl, Br, I, NO 2, haloalkyl, CF 3, CN, -CH 2 CN, NH 2, hydroxyl, -(CH 2) i NHCH 3, -(CH 2) i NH 2, -(CH 2) i N(CH 3) 2, -OC CF 3, -SO 2 -aryl, C 1 -C 5 linear or branched alkyl, alkylamino, aminoalkyl, -OCH 2 Ph, -NHCO-alkyl, COOH, -C Ph, C O-alkyl, C H, -C NH 2 or a combination thereof; R 1 is independently hydrogen, O-alkyl, O-haloalkyl, F, Cl, Br, I, haloalkyl, CF 3, CN, NO 2, -CH 2 CN, NH 2, hydroxyl, COOH, C H, NHCO-alkyl, -O(CH 2) j OCH 3, -O(CH 2)OH, -O(CH 2) j NHCH 3, -O(CH 2) j NH 2, -O-(CH 2) j (CH 3) 2, -OC CF 3, -OC CH 2 Cl, -OCH 2 Ph, -O(CH 2) j N-phthalimide or a combination thereof; R 2 is O-alkyl, O-haloalkyl, Cl, Br, I, haloalkyl, CF 3, CN, NO 2, -CH 2 CN, NH 2, hydroxyl, COOH, C H, NHCO-alkyl, -O(CH 2) k OCH 3, -O(CH 2) k OH, -O(CH 2) k NHCH 3, -O(CH 2) k NH 2, -O-(CH 2) k N(CH 3) 2, -OC CF 3, -OC CH 2 Cl, -OCH 2 Ph, or -O(CH 2) k N-phthalimide; i, j, and k are independently an integer between 0 to 5; n is an integer between 1 to 4;
A method for processing magnetostrictively generated guided wave detection signals, the method comprising steps of: S1: obtaining an analysis signal u(n) from capturing an original magnetostrictively generated guided wave detection signal, where n ≤ N, and N is the length of the analysis signal u(n); S2: performing band-pass filtering on the analysis signal u(n) to obtain a signal x(n), and initializing i to 0; S3: obtaining a group of signals x(i), x(i+1),..., x(i+M-1) using a rectangular window with a width of M, where M = [L/4], and L is the length of the excitation signal; S4: forming a matrix A of R ∗ (M-R+1), where R = [M/2]: A = x i x i + 1 ⋯ x i + M − R x i + 1 x i + 2 ⋯ x i + M − R + 1 ⋮ ⋮ ⋱ ⋮ x i + R − 1 x i + R ⋯ x i + M − 1; S5: performing singular value decomposition on the matrix A to obtain a singular matrix B: B = λ 1 0 ⋯ 0 ⋯ 0 0 λ 2 ⋯ 0 ⋯ 0 ⋮ ⋮ ⋱ ⋮ ⋮ ⋮ 0 0 ⋯ λ R ⋯ 0, λ j represents an eigenvalue, and j = 1, 2,...R; S6: setting eigenvalues in the matrix B smaller than the median to 0 to obtain a matrix C, and performing inverse singular value transformation on the matrix C to obtain a matrix D: D = y i y i + 1 ⋯ y i + M − R y i + 1 y i + 2 ⋯ y i + M − R + 1 ⋮ ⋮ ⋱ ⋮ y i + R − 1 y i + R ⋯ y i + M − 1; S7: recovering a group of processed signals y(i), y(i+1),..., y(i+M-1) from the matrix D and calculating energy z of the group of processed signals; and S8: setting i to (i+1) and repeating steps S3-S7 until i= N+1-M to finish calculating the energy of processed signals of the selected analysis area. S1: obtaining an analysis signal u(n) from capturing an original magnetostrictively generated guided wave detection signal, where n ≤ N, and N is the length of the analysis signal u(n); S2: performing band-pass filtering on the analysis signal u(n) to obtain a signal x(n), and initializing i to 0; S3: obtaining a group of signals x(i), x(i+1),..., x(i+M-1) using a rectangular window with a width of M, where M = [L/4], and L is the length of the excitation signal; S4: forming a matrix A of R ∗ (M-R+1), where R = [M/2]: A = x i x i + 1 ⋯ x i + M − R x i + 1 x i + 2 ⋯ x i + M − R + 1 ⋮ ⋮ ⋱ ⋮ x i + R − 1 x i + R ⋯ x i + M − 1; S5: performing singular value decomposition on the matrix A to obtain a singular matrix B: B = λ 1 0 ⋯ 0 ⋯ 0 0 λ 2 ⋯ 0 ⋯ 0 ⋮ ⋮ ⋱ ⋮ ⋮ ⋮ 0 0 ⋯ λ R ⋯ 0, λ j represents an eigenvalue, and j = 1, 2,...R; S6: setting eigenvalues in the matrix B smaller than the median to 0 to obtain a matrix C, and performing inverse singular value transformation on the matrix C to obtain a matrix D: D = y i y i + 1 ⋯ y i + M − R y i + 1 y i + 2 ⋯ y i + M − R + 1 ⋮ ⋮ ⋱ ⋮ y i + R − 1 y i + R ⋯ y i + M − 1; S7: recovering a group of processed signals y(i), y(i+1),..., y(i+M-1) from the matrix D and calculating energy z of the group of processed signals; and S8: setting i to (i+1) and repeating steps S3-S7 until i= N+1-M to finish calculating the energy of processed signals of the selected analysis area.