mhurhangee/ep-ind-claims huggingface dataset:
Impact bar for installation in an axially parallel impact bar mount of a rotor of an impact crusher, with following features: a. The impact bar has within a Cartesian co-ordinate system a longitudinal axis which extends in the z direction parallel to the impact bar mount in the installation position, a vertical axis which extends in the y direction and is directed towards a radial head face of the impact bar, and a transverse axis which extends in the x direction and is directed towards a long side of the impact bar; b. The impact bar has two end front faces (11, 12, 13, 14) on each of its long sides (9, 10) and a front and a rear holding region (15, 16) between the front faces (11, 12, 13, 14), wherein the holding regions (15, 16) are each delimited by two longitudinal ribs (17, 18, 19, 20) which project with respect to the front faces (11, 12, 13, 14), wherein the longitudinal ribs (17, 18, 19, 20) are arranged in mirror symmetry in relation to the y-z plane and the x-z plane; c. The longitudinal ribs (17 - 20) are trapezoidal in cross-section, with a wide base on the impact bar and a narrower upper face spaced apart from the base, and with, in each case, an inner oblique flank (23, 24, 25, 26) and an outer flank, wherein the flanks (23 - 27) extend between the base and the upper face and wherein the inner flanks (23 - 26) extend at a flank angle from 20° to 27° to the x direction; d. Inner flanks (23 - 26) arranged diagonally opposite in pairs extend in a common plane; e. Only the inner flanks (23 - 26) can be supported in the installation position for transmission of forces into the impact bar mount on the rotor. a. The impact bar has within a Cartesian co-ordinate system a longitudinal axis which extends in the z direction parallel to the impact bar mount in the installation position, a vertical axis which extends in the y direction and is directed towards a radial head face of the impact bar, and a transverse axis which extends in the x direction and is directed towards a long side of the impact bar; b. The impact bar has two end front faces (11, 12, 13, 14) on each of its long sides (9, 10) and a front and a rear holding region (15, 16) between the front faces (11, 12, 13, 14), wherein the holding regions (15, 16) are each delimited by two longitudinal ribs (17, 18, 19, 20) which project with respect to the front faces (11, 12, 13, 14), wherein the longitudinal ribs (17, 18, 19, 20) are arranged in mirror symmetry in relation to the y-z plane and the x-z plane; c. The longitudinal ribs (17 - 20) are trapezoidal in cross-section, with a wide base on the impact bar and a narrower upper face spaced apart from the base, and with, in each case, an inner oblique flank (23, 24, 25, 26) and an outer flank, wherein the flanks (23 - 27) extend between the base and the upper face and wherein the inner flanks (23 - 26) extend at a flank angle from 20° to 27° to the x direction; d. Inner flanks (23 - 26) arranged diagonally opposite in pairs extend in a common plane; e. Only the inner flanks (23 - 26) can be supported in the installation position for transmission of forces into the impact bar mount on the rotor.
Use of one or more charged surfactants in cosmetic or dermatological preparations comprising one or more antiperspirant active ingredients for reducing or preventing staining in or on clothing.
A vacuum container for a vacuum food storage comprising: a vessel, a lid equipped with a valve for sucking air out of the vessel and a date display system, whereby the date display system is at least partially circular and the date display system and the valve are arranged concentrically, characterised in that the date display system comprises two dialing rings and two date indication openings and the dialing ring is a thin disc with opening in the axis and with the date indication opening and where one of the dialing ring has different size than the other dialing ring and both dialing rings are positioned concentrically with each other and with the valve and the day and month numbers are placed on the lid under dialing rings and are visible only through date indication openings. a vessel, a lid equipped with a valve for sucking air out of the vessel and a date display system, whereby the date display system is at least partially circular and the date display system and the valve are arranged concentrically, characterised in that the date display system comprises two dialing rings and two date indication openings and the dialing ring is a thin disc with opening in the axis and with the date indication opening and where one of the dialing ring has different size than the other dialing ring and both dialing rings are positioned concentrically with each other and with the valve and the day and month numbers are placed on the lid under dialing rings and are visible only through date indication openings.
A ceramic matrix composite hollow turbine blade comprising a CMC airfoil comprising: at least one airfoil CMC ply defining a contour of the CMC airfoil including a first edge, a second edge opposite the first edge, a first side extending from the first edge to the second edge, and a second side opposite the first side, the second side extending from the first edge to the second edge; at least one cavity CMC ply defining a cavity within the CMC airfoil of the CMC hollow blade; and a first insert located between the first edge and the cavity, the first insert being wrapped by one of the at least one airfoil CMC ply and the at least one cavity CMC ply such that the one of the at least one airfoil CMC ply and the at least one cavity CMC ply, starting off a mean camber line of the CMC airfoil, extends along the first insert from the first side of the CMC airfoil across the mean camber line and to the second side of the CMC airfoil, the one of the at least one airfoil CMC ply and the at least one cavity CMC ply crossing the mean camber line between the first edge and the cavity at least twice and terminating at a ply end on the second side of the CMC airfoil off the mean camber line. at least one airfoil CMC ply defining a contour of the CMC airfoil including a first edge, a second edge opposite the first edge, a first side extending from the first edge to the second edge, and a second side opposite the first side, the second side extending from the first edge to the second edge; at least one cavity CMC ply defining a cavity within the CMC airfoil of the CMC hollow blade; and a first insert located between the first edge and the cavity, the first insert being wrapped by one of the at least one airfoil CMC ply and the at least one cavity CMC ply such that the one of the at least one airfoil CMC ply and the at least one cavity CMC ply, starting off a mean camber line of the CMC airfoil, extends along the first insert from the first side of the CMC airfoil across the mean camber line and to the second side of the CMC airfoil, the one of the at least one airfoil CMC ply and the at least one cavity CMC ply crossing the mean camber line between the first edge and the cavity at least twice and terminating at a ply end on the second side of the CMC airfoil off the mean camber line.
The compound 4-[(2,4-dichloro-5-methoxyphenyl)amino]-6-methoxy-7-[3-(4-methyl-1-piperazinyl)propoxy]-3-quinolinecarbonitrile or a pharmaceutically acceptable salt thereof, for use in the treatment of a BcrAbl positive leukemia in a subject that is resistant to imatinib, wherein the leukemia is Chronic Myelogenous Leukemia and has a resistance-associated nucleic acid mutation in the bcrabl gene which is 1457T>C.
Endoscopic capsule system comprising: an endoscopic capsule having magnetic characteristics and being adapted to get introduced into a hollow organ of a patient's body; an extracorporeal guiding and moving apparatus for guiding and moving the endoscopic capsule, said extracorporeal guiding and moving apparatus having a moveable multi-hinged cantilever arm, which is at one end portion pivotally mounted at a support stand and which comprises an effector having magnetic characteristics and being pivotally mounted at the other free end portion of the cantilever arm for trailing, rotating, yawing and/or pitching the endoscopic capsule in accordance with the actual movement of the effector; and a controller device; and a force and/or moment generation device or a braking device being adapted to influence the extracorporeal guiding and moving apparatus at least with respect to pre-selected movements of the cantilever arm and/or the effector, characterized in that the controller being designed and adapted to define a position and/or an orientation of the endoscopic capsule relative to the effector, and the force and/or moment generation device or the braking device being connected to the controller device to generate counter forces and/or counter moments or braking forces against moving forces that are manually applied to the cantilever arm and/or effector in accordance with the actually defined position and/or orientation of the endoscopic capsule relative to the effector. an endoscopic capsule having magnetic characteristics and being adapted to get introduced into a hollow organ of a patient's body; an extracorporeal guiding and moving apparatus for guiding and moving the endoscopic capsule, said extracorporeal guiding and moving apparatus having a moveable multi-hinged cantilever arm, which is at one end portion pivotally mounted at a support stand and which comprises an effector having magnetic characteristics and being pivotally mounted at the other free end portion of the cantilever arm for trailing, rotating, yawing and/or pitching the endoscopic capsule in accordance with the actual movement of the effector; and a controller device; and a force and/or moment generation device or a braking device being adapted to influence the extracorporeal guiding and moving apparatus at least with respect to pre-selected movements of the cantilever arm and/or the effector, characterized in that the controller being designed and adapted to define a position and/or an orientation of the endoscopic capsule relative to the effector, and the force and/or moment generation device or the braking device being connected to the controller device to generate counter forces and/or counter moments or braking forces against moving forces that are manually applied to the cantilever arm and/or effector in accordance with the actually defined position and/or orientation of the endoscopic capsule relative to the effector.
System (70; 86; 88; 104; 126) for combined energy conversion and water purification, in particular water desalination, comprising: - a water purification, in particular water desalination, sub-system adapted to low temperature boil water to be purified at reduced pressure and - at least one engine coupled to the water purification sub-system and adapted to generate reduced pressure needed in the water purification sub-system for generating water vapor out of the water to be purified and to generate pressure needed in the water purification sub-system for condensing a generated water vapor into fresh water, wherein the engine is an electric linear generator/motor comprising: an elongate stator, an electrical induction coil extending lengthwise within or around the stator, a rotor including or carrying at least one permanent magnet and capable of moving linearly to and fro relative to the stator, and a means for providing connection of the respective ends of the coil with an electrical energy storage, electrical energy source, electric device or the like, further comprising a pipe, both pipe ends being sealed by a flexible diaphragm (84; 112; 116; 136; 138) and the pipe being filled with an incompressible fluid, the stator is designed as a sleeve sitting on the pipe and that the rotor is located in the pipe. - a water purification, in particular water desalination, sub-system adapted to low temperature boil water to be purified at reduced pressure and - at least one engine coupled to the water purification sub-system and adapted to generate reduced pressure needed in the water purification sub-system for generating water vapor out of the water to be purified and to generate pressure needed in the water purification sub-system for condensing a generated water vapor into fresh water,
Laser processing device for laser processing of a wire, the device comprising a first laser beam source for emitting a first laser beam into a processing region for processing the wire, a second laser beam source for emitting a second laser beam into said processing region for processing the wire, wherein the first laser beam source and the second laser beam source are arranged in opposite directions to each other, in order to direct the first laser beam and the second laser beam to opposite sides of a point of the wire to be processed, characterized by a wire guide device for guiding the wire for movement of the wire in its longitudinal direction through the processing region and holding the wire during laser processing, and an aperture device comprising a first aperture and a second aperture which can be moved in a coupled manner such that alternately one of the first and second laser beams is let through into the processing region and the other is blocked out. a first laser beam source for emitting a first laser beam into a processing region for processing the wire, a second laser beam source for emitting a second laser beam into said processing region for processing the wire, wherein the first laser beam source and the second laser beam source are arranged in opposite directions to each other, in order to direct the first laser beam and the second laser beam to opposite sides of a point of the wire to be processed, characterized by a wire guide device for guiding the wire for movement of the wire in its longitudinal direction through the processing region and holding the wire during laser processing, and an aperture device comprising a first aperture and a second aperture which can be moved in a coupled manner such that alternately one of the first and second laser beams is let through into the processing region and the other is blocked out.
A method for fabricating an acoustic metamaterial comprising: providing a planar pattern of springs arranged in columns and rows and separated from each other by interconnection nodes; (step 100) providing a planar pattern of mass units separated from each other by a distance corresponding to a distance between the interconnection nodes; (step 110) providing an array of vertically oriented springs separated from each other by the distance between the interconnection nodes; (step 120) and aligning and joining the planar pattern of springs, the planar pattern of mass units and the array of vertically oriented springs to form a layer of unit cells. (step 130) providing a planar pattern of springs arranged in columns and rows and separated from each other by interconnection nodes; (step 100) providing a planar pattern of mass units separated from each other by a distance corresponding to a distance between the interconnection nodes; (step 110) providing an array of vertically oriented springs separated from each other by the distance between the interconnection nodes; (step 120) and aligning and joining the planar pattern of springs, the planar pattern of mass units and the array of vertically oriented springs to form a layer of unit cells. (step 130)
Reinforcement layer for a pneumatic vehicle tyre, in particular a reinforcement layer of a carcass, the reinforcement layer having a reinforcement comprising at least one PES yarn of twisted-together filaments of a polyester, the PES yarn having a maximum filament density of 2.0 filaments/tex, the filament density indicating the number of filaments with respect to the fineness of the PES yarn the reinforcement having just one yarn, the just one yarn being the PES yarn, characterized in that the PES yarn has a twist factor α of 35 to 75. the PES yarn having a maximum filament density of 2.0 filaments/tex, the filament density indicating the number of filaments with respect to the fineness of the PES yarn the reinforcement having just one yarn, the just one yarn being the PES yarn, characterized in that the PES yarn has a twist factor α of 35 to 75.
A resonant sensor (1 to 9) comprising: a mover that is movable in a first direction; a supporter (12, 12a, 12b, 60) that extends in a second direction perpendicular to the first direction, the supporter (12, 12a, 12b, 60) being connected to the mover and a fixer, the supporter (12, 12a, 12b, 60) supporting the mover which is movable in the first direction; and a resonator (R1, R11, R12) that is vibratable, at least a part of the resonator (R1, R11, R12) being embedded in the supporter (12, 12a, 12b, 60), characterized in that the resonator (R1, R11, R12) is disposed in a state where the resonator (R1, R11, R12) has a tensile strain in the second direction. a mover that is movable in a first direction; a supporter (12, 12a, 12b, 60) that extends in a second direction perpendicular to the first direction, the supporter (12, 12a, 12b, 60) being connected to the mover and a fixer, the supporter (12, 12a, 12b, 60) supporting the mover which is movable in the first direction; and a resonator (R1, R11, R12) that is vibratable, at least a part of the resonator (R1, R11, R12) being embedded in the supporter (12, 12a, 12b, 60), characterized in that the resonator (R1, R11, R12) is disposed in a state where the resonator (R1, R11, R12) has a tensile strain in the second direction.
An on-chip voltage conversion apparatus for integrated circuits, comprising: a first capacitor; a first NFET device configured to selectively couple a first electrode of the first capacitor to a low value of a first voltage domain; a first PFET device configured to selectively couple the first electrode of the first capacitor to a high value of the first voltage domain; a second NFET device configured to selectively couple a second electrode of the first capacitor to a low value of a second voltage domain, wherein the low value of the second voltage domain corresponds to the high value of the first voltage domain; and a second PFET device configured to selectively couple the second electrode of the first capacitor to a high value of the second voltage domain; wherein the first and second NFET and PFET devices are formed on a silicon-on-insulator substrate; and characterised by: the first capacitor being a deep trench capacitor; gate terminals of the first NFET and PFET devices operate entirely within the first voltage domain; and gate terminals of the second NFET and PFET devices operate entirely within the second voltage domain. a first capacitor; a first NFET device configured to selectively couple a first electrode of the first capacitor to a low value of a first voltage domain; a first PFET device configured to selectively couple the first electrode of the first capacitor to a high value of the first voltage domain; a second NFET device configured to selectively couple a second electrode of the first capacitor to a low value of a second voltage domain, wherein the low value of the second voltage domain corresponds to the high value of the first voltage domain; and a second PFET device configured to selectively couple the second electrode of the first capacitor to a high value of the second voltage domain; wherein the first and second NFET and PFET devices are formed on a silicon-on-insulator substrate; and characterised by: the first capacitor being a deep trench capacitor; gate terminals of the first NFET and PFET devices operate entirely within the first voltage domain; and gate terminals of the second NFET and PFET devices operate entirely within the second voltage domain. the first capacitor being a deep trench capacitor; gate terminals of the first NFET and PFET devices operate entirely within the first voltage domain; and gate terminals of the second NFET and PFET devices operate entirely within the second voltage domain.
A polymer electrolyte for a secondary battery, the polymer electrolyte comprising: a polymer represented by Formula 1 or Formula 2; and an electron-acceptor having at least one double bond, as a dopant: wherein R and R 5 are each independently carbon or sulfur, R 1 and R 6 are each independently or wherein R 9 is -C(CF 3) 2 -, R 2 and R 7 are R 3 is -S (CF 2) 2 SO 3 - Li +, R 4 is wherein R 10 is-C 2 -, R 8 is o and o1 are 1 or 2, p, p1, q, q1, r, and s are 0 or 1, a ratio of n: m is in a range of 95:5 to 5:95 as a molar ratio, and a ratio of n': m' is in a range of 95:5 to 5:95 as a molar ratio. a polymer represented by Formula 1 or Formula 2; and an electron-acceptor having at least one double bond, as a dopant: wherein R and R 5 are each independently carbon or sulfur, R 1 and R 6 are each independently or wherein R 9 is -C(CF 3) 2 -, R 2 and R 7 are R 3 is -S (CF 2) 2 SO 3 - Li +, R 4 is wherein R 10 is-C 2 -, R 8 is o and o1 are 1 or 2, p, p1, q, q1, r, and s are 0 or 1, a ratio of n: m is in a range of 95:5 to 5:95 as a molar ratio, and a ratio of n': m' is in a range of 95:5 to 5:95 as a molar ratio.
Use of an anionically-modified cellulosic polymer to prevent the redeposition of dyes in a textile laundering wash bath from coloured textiles onto white or differently-coloured textiles also present in the same wash bath.
A system for operation upon one or more data processors to classify communications from messaging entities, comprising: a plurality of message classification techniques; wherein the plurality of message classification techniques are configured to classify a communication received from a messaging entity; message profiling logic configured to combine the message classification outputs in order to generate a message profile score; wherein each message classification technique is associated with a confidence value which is used in generating a message classification output from the message classification technique; and wherein a filter value from each of the classification techniques is multiplied by its associated confidence value in order to generate the message classification output, in particular wherein a tuner program is used to tune the confidence values associated with the message classification techniques, wherein the tuner program uses a genetic algorithm to tune the confidence values; wherein the genetic algorithm is designed with a fitness function that models the fitness of candidate solutions in the actual problem domain; and wherein the fitness function expresses the cost associated with the mistakes that a configuration made in attempting to correctly classify message vectors in the set of pre-classified data, in particular wherein the system is configured to operate with adaptive message blocking and whitelisting. a plurality of message classification techniques; wherein the plurality of message classification techniques are configured to classify a communication received from a messaging entity; message profiling logic configured to combine the message classification outputs in order to generate a message profile score; wherein each message classification technique is associated with a confidence value which is used in generating a message classification output from the message classification technique; and wherein a filter value from each of the classification techniques is multiplied by its associated confidence value in order to generate the message classification output, in particular wherein a tuner program is used to tune the confidence values associated with the message classification techniques, wherein the tuner program uses a genetic algorithm to tune the confidence values; wherein the genetic algorithm is designed with a fitness function that models the fitness of candidate solutions in the actual problem domain; and wherein the fitness function expresses the cost associated with the mistakes that a configuration made in attempting to correctly classify message vectors in the set of pre-classified data, in particular wherein the system is configured to operate with adaptive message blocking and whitelisting.