mhurhangee/ep-ind-claims huggingface dataset:
Axle system, in particular for use in commercial vehicles, the axle system comprising an axle tube and a handlebar, wherein the axle tube extends along a tube axis, wherein a connecting unit is provided which has a retaining element, a first clamping part and a force unit, wherein the first clamping part can be arranged at least partially on the side of the handlebar facing away from the axle tube and can be brought into non-positive engagement with the handlebar, wherein the force unit is designed to transmit a clamping force from the retaining element to the first clamping part indirectly or directly, wherein the retaining element has an engagement geometry with which the force unit can be brought into engagement in such a way that a form closure is produced between the force unit and the retaining element at least in a direction parallel to a force axis, wherein the engagement geometry is designed in such a way that the force unit can be brought into positive engagement with the retaining element at least two engagement positions spaced apart along the tube axis, wherein the retaining element is fixed to the axle tube in a material-locking manner, wherein the engagement geometry is formed as a recess on the retaining element, characterized in that the engagement geometry has its greatest extension parallel to the tube axis. wherein the axle tube extends along a tube axis, wherein a connecting unit is provided which has a retaining element, a first clamping part and a force unit, wherein the first clamping part can be arranged at least partially on the side of the handlebar facing away from the axle tube and can be brought into non-positive engagement with the handlebar, wherein the force unit is designed to transmit a clamping force from the retaining element to the first clamping part indirectly or directly, wherein the retaining element has an engagement geometry with which the force unit can be brought into engagement in such a way that a form closure is produced between the force unit and the retaining element at least in a direction parallel to a force axis, wherein the engagement geometry is designed in such a way that the force unit can be brought into positive engagement with the retaining element at least two engagement positions spaced apart along the tube axis, wherein the retaining element is fixed to the axle tube in a material-locking manner, wherein the engagement geometry is formed as a recess on the retaining element, characterized in that the engagement geometry has its greatest extension parallel to the tube axis.
A randomly shaped battery comprising: a randomly shaped cathode; a core, operating as an anode current collector positioned in the randomly shaped cathode; and an outer conductor coupling the randomly shaped cathode, the outer conductor wrapping the randomly shaped cathode such that the outer conductor conforms to the shape of the randomly shaped cathode, wherein the randomly shaped cathode incorporates a metal foam applied around the anode current collector. a randomly shaped cathode; a core, operating as an anode current collector positioned in the randomly shaped cathode; and an outer conductor coupling the randomly shaped cathode, the outer conductor wrapping the randomly shaped cathode such that the outer conductor conforms to the shape of the randomly shaped cathode, wherein the randomly shaped cathode incorporates a metal foam applied around the anode current collector.
Machine for folding an edible kneading, comprising a hopper for loading and unloading the edible kneading, and a couple of supporting and folding means (5, 50) of the edible kneading, said support and folding means being selectably movable horizontally between opposite lateral resting areas and a central working area of the machine, characterized in that it comprises stretching means and in that in said central area the supporting and folding means (5, 50) are suitable to assume a first working position of maximum travel from the lateral rest areas wherein the extremities of said supporting and folding means are adjacent without touching one another to allow the optimal supporting of the kneading still in the form of a compact block, a second working position of partial travel from the lateral rest areas in such a way that a central position of the kneading by now stretched by the stretching means falls by gravity on a lower support, and a third position again of maximum travel from the lateral resting areas to consent the bending of the lateral portions on the central portion of the kneading.
Method for obtaining at least one functional parameter of a muscle having at least one part, the muscle having reflecting particles, the method comprising the steps of: a) applying ultrasound to the muscle, wherein at least one focused ultrasound wave is applied to generate an elastic shear wave in the muscle and a succession of ultrasound waves are applied so that at least some of said ultrasound waves penetrate into an area of the muscle while the shear wave is propagating in the same area, b) collecting the ultrasound waves retrodiffused by the muscle at a plurality of times, to obtain collected ultrasound waves, wherein the collected ultrasound waves are echoes generated by the ultrasound compression waves interacting with reflecting particles in the muscle, c) determining a first plurality of values representative of stiffness values of at least one part of the parts of the muscle at a first plurality of times by using the collected ultrasound waves, the first plurality of times being included in the plurality of times, d) determining a second plurality of values representative of deformation values of said part at a second plurality of times by using the collected ultrasound waves, the second plurality of times being included in the plurality of times and being associated with the first plurality of times in a one-to-one relationship, and e) deducing at least one functional parameter based on the first plurality of values and the second plurality of values. a) applying ultrasound to the muscle, wherein at least one focused ultrasound wave is applied to generate an elastic shear wave in the muscle and a succession of ultrasound waves are applied so that at least some of said ultrasound waves penetrate into an area of the muscle while the shear wave is propagating in the same area, b) collecting the ultrasound waves retrodiffused by the muscle at a plurality of times, to obtain collected ultrasound waves, wherein the collected ultrasound waves are echoes generated by the ultrasound compression waves interacting with reflecting particles in the muscle, c) determining a first plurality of values representative of stiffness values of at least one part of the parts of the muscle at a first plurality of times by using the collected ultrasound waves, the first plurality of times being included in the plurality of times, d) determining a second plurality of values representative of deformation values of said part at a second plurality of times by using the collected ultrasound waves, the second plurality of times being included in the plurality of times and being associated with the first plurality of times in a one-to-one relationship, and e) deducing at least one functional parameter based on the first plurality of values and the second plurality of values.
Method for welding a contact part to a connection part by ultrasonic welding, in which - a metallic connection part is placed between an anvil and a sonotrode (14a, b, c) onto the anvil, and - a metallic contact part is placed onto the connection part on the side of the connection part facing the sonotrode (14a, b, c), - the sonotrode (14a, b, c) is moved from an open position in the direction of the anvil into a welding position and thereby a contact surface of a sonotrode head pressing the contact part onto the connection part and - the sonotrode (14a, b, c) transmits an oscillation energy to the contact part via the contact surface by means of ultrasound, by means of which the connection part is welded to the contact part, characterized in - that when the sonotrode (14a, b, c) is moved in the direction of the welding position, a damping element arranged on the sonotrode head laterally next to the contact surface of the sonotrode head is pressed against the connection part and is elastically deformed thereby. - a metallic connection part is placed between an anvil and a sonotrode (14a, b, c) onto the anvil, and - a metallic contact part is placed onto the connection part on the side of the connection part facing the sonotrode (14a, b, c), - the sonotrode (14a, b, c) is moved from an open position in the direction of the anvil into a welding position and thereby a contact surface of a sonotrode head pressing the contact part onto the connection part and - the sonotrode (14a, b, c) transmits an oscillation energy to the contact part via the contact surface by means of ultrasound, by means of which the connection part is welded to the contact part, characterized in - that when the sonotrode (14a, b, c) is moved in the direction of the welding position, a damping element arranged on the sonotrode head laterally next to the contact surface of the sonotrode head is pressed against the connection part and is elastically deformed thereby.
A method of purifying mRNA molecules, said method comprising (Ia) purifying precipitated mRNA molecules from a suspension comprising precipitated mRNA molecules using a first solution, (Ib) washing and dissolving the purified precipitated mRNA molecules obtained from step (Ia) using a second solution, (Ila) purifying the mRNA molecules from the dissolved mRNA molecules obtained from step (Ib) using a third solution comprising a chelating agent, wherein the chelating agent is a chelating agent with at least four coordinating positions at the cation to be chelated, followed by (IIb) washing the purified mRNA molecules obtained from step (IIa) using a fourth solution, wherein steps (Ia) to (IIb) are performed using tangential flow filtration. (Ia) purifying precipitated mRNA molecules from a suspension comprising precipitated mRNA molecules using a first solution, (Ib) washing and dissolving the purified precipitated mRNA molecules obtained from step (Ia) using a second solution, (Ila) purifying the mRNA molecules from the dissolved mRNA molecules obtained from step (Ib) using a third solution comprising a chelating agent, wherein the chelating agent is a chelating agent with at least four coordinating positions at the cation to be chelated, followed by (IIb) washing the purified mRNA molecules obtained from step (IIa) using a fourth solution, wherein steps (Ia) to (IIb) are performed using tangential flow filtration.
An expression vector comprising an expression cassette containing a structural gene sequence (y) encoding a protein, a structural gene sequence (z) located downstream from the structural gene sequence (y) and encoding a protein that is a protein to be recovered, and a promoter sequence and a terminator sequence for expressing a fusion protein containing the protein moiety and the protein moiety, characterized in that the protein is a partial protein of PDI1 consisting of an endoplasmic reticulum targeting signal of PDI1, an a-domain, a b-domain and a x-domain, or a partial protein of PDI1 consisting of an endoplasmic reticulum targeting signal of PDI1, an a-domain, a b-domain, a b'-domain and a x-domain.
A method of displaying image data on a head-mounted display device disposed in a vehicle, comprising the steps of: - receiving, by a computing device comprising a processor and adapted to be coupled with the head-mounted display device worn by a user in the vehicle, at least one first image for displaying on the head-mounted display device, - receiving, by the computing device, at least one sequence of second images of an environment proximate the vehicle captured with a panoramic vehicle camera during motion of the vehicle, - determining, by the computing device, at least one parameter which is indicative of at least one vehicle motion property, - displaying, by the computing device, during motion of the vehicle and when the at least one parameter has a first value, the at least one first image and the at least one sequence of second images simultaneously on the head-mounted display device such that the at least one first image is overlaid onto the at least one sequence of second images and the at least one sequence of second images provides a peripheral optical flow of images to the user when focusing on the at least one first image, and - changing, by the computing device, at least one image property of the at least one sequence of second images if the at least one parameter has a second value different from the first value. - receiving, by a computing device comprising a processor and adapted to be coupled with the head-mounted display device worn by a user in the vehicle, at least one first image for displaying on the head-mounted display device, - receiving, by the computing device, at least one sequence of second images of an environment proximate the vehicle captured with a panoramic vehicle camera during motion of the vehicle, - determining, by the computing device, at least one parameter which is indicative of at least one vehicle motion property, - displaying, by the computing device, during motion of the vehicle and when the at least one parameter has a first value, the at least one first image and the at least one sequence of second images simultaneously on the head-mounted display device such that the at least one first image is overlaid onto the at least one sequence of second images and the at least one sequence of second images provides a peripheral optical flow of images to the user when focusing on the at least one first image, and - changing, by the computing device, at least one image property of the at least one sequence of second images if the at least one parameter has a second value different from the first value.
A method of obtaining polyepitopic protein, characterised in that: a) a blunt-ended DNA sequence encoding an epitope is cloned at a site recognised by Smal into a DNA vector containing a sequence, the amplifying module, encompassing two convergent DNA sequences recognised by Sapl and a DNA sequence found between them containing a site for cloning in an insert recognised by Smal, wherein the amplifying module contains a nucleotide sequence selected from: SEQ ID NO: 1, SEQ ID NO: 2, SEQ ID NO: 3, SEQ ID NO: 4, SEQ ID NO: 5 or SEQ ID NO: 6, preferably the amplifying module possesses the sequence: GCTCTTCACCCGGGCCCAGAAGAGC (SEQ ID NO: 11), b) the resulting vector is amplified in a bacterial host, isolated and digested with Sapl, and then the fragment containing the DNA sequence encoding the epitope is isolated, which is modified such that it becomes equipped with single-stranded sticky ends facilitating directional ligation of the insert to the concatemer, c) the isolated fragment is autoligated, d) the autoligation product is cloned at a site recognised by SapI into said DNA vector as defined in point a), e) the resulting vector is used to transform a bacterial host and then the polyepitopic protein is expressed and isolated, wherein in order to increase the size of the polyepitopic protein, stages from b) to d) are repeated prior to realising stage e), a concatenated DNA sequences encoding the epitopes are present in the resulting vector. a) a blunt-ended DNA sequence encoding an epitope is cloned at a site recognised by Smal into a DNA vector containing a sequence, the amplifying module, encompassing two convergent DNA sequences recognised by Sapl and a DNA sequence found between them containing a site for cloning in an insert recognised by Smal, wherein the amplifying module contains a nucleotide sequence selected from: SEQ ID NO: 1, SEQ ID NO: 2, SEQ ID NO: 3, SEQ ID NO: 4, SEQ ID NO: 5 or SEQ ID NO: 6, preferably the amplifying module possesses the sequence: GCTCTTCACCCGGGCCCAGAAGAGC (SEQ ID NO: 11), b) the resulting vector is amplified in a bacterial host, isolated and digested with Sapl, and then the fragment containing the DNA sequence encoding the epitope is isolated, which is modified such that it becomes equipped with single-stranded sticky ends facilitating directional ligation of the insert to the concatemer, c) the isolated fragment is autoligated, d) the autoligation product is cloned at a site recognised by SapI into said DNA vector as defined in point a), e) the resulting vector is used to transform a bacterial host and then the polyepitopic protein is expressed and isolated,
A milking system, comprising: a first milking box having a first robotic attacher that is operable to extend between the rear legs of a first dairy livestock within a stall of the first milking box in order to attach milking equipment to the first dairy livestock; and a second milking box positioned front-to-back with the first milking box and having a second robotic attacher, the second robotic attacher operable to extend between the rear legs of a second dairy livestock within a stall of the second milking box in order to attach milking equipment to the second dairy livestock, wherein the first robotic attacher comprises: a main arm; a supplemental arm coupled to the main arm; a gripping portion coupled to the supplemental arm; a vision system positioned on a first surface of the first robotic attacher; and at least one nozzle positioned on a second surface opposite the first surface, wherein the gripping portion is operable to rotate such that during a milking operation, the nozzle is positioned generally on the bottom of the first robotic attacher, and during a spraying operation, the nozzle is positioned generally on the top of the first robotic attacher. a first milking box having a first robotic attacher that is operable to extend between the rear legs of a first dairy livestock within a stall of the first milking box in order to attach milking equipment to the first dairy livestock; and a second milking box positioned front-to-back with the first milking box and having a second robotic attacher, the second robotic attacher operable to extend between the rear legs of a second dairy livestock within a stall of the second milking box in order to attach milking equipment to the second dairy livestock, wherein the first robotic attacher comprises: a main arm; a supplemental arm coupled to the main arm; a gripping portion coupled to the supplemental arm; a vision system positioned on a first surface of the first robotic attacher; and at least one nozzle positioned on a second surface opposite the first surface, a main arm; a supplemental arm coupled to the main arm; a gripping portion coupled to the supplemental arm; a vision system positioned on a first surface of the first robotic attacher; and at least one nozzle positioned on a second surface opposite the first surface, wherein the gripping portion is operable to rotate such that during a milking operation, the nozzle is positioned generally on the bottom of the first robotic attacher, and during a spraying operation, the nozzle is positioned generally on the top of the first robotic attacher.
Process for producing a high-temperature-resistant composite body (2; 22) by joining over an area of a first, nonmetallic section (10; 26) via a bonding solder layer (12; 28) to a second, metallic section (6; 24) composed of Mo, an Mo-based alloy, W or a W-based alloy, characterized by the following steps: A) production of a first arrangement of the first section (10; 26), a first Zr solder and an intermediate layer in this order, where the intermediate layer is formed to an extent of at least 90 atom% by at least one of the elements Ta, Nb and/or W, B) heating of the first arrangement in a first soldering step in such a way that the Zr solder but not the intermediate layer melts and a part composite body is obtained, C) production of a second arrangement of the part composite body, a second solder (40, 42) adjoining the intermediate layer and the second section (6; 24) in this order, where the second solder (40, 42) is formed by precisely one material from the group consisting of Ti, Ti-based solder combination, V-based solder combination, Zr or Zr-based solder combination and is selected so that it melts at a lower temperature than the first Zr solder in the second arrangement, and D) heating of the second arrangement in a second soldering step in such a way that the second solder (40, 42) but not the soldered bond obtained from the first Zr solder melts. A) production of a first arrangement of the first section (10; 26), a first Zr solder and an intermediate layer in this order, where the intermediate layer is formed to an extent of at least 90 atom% by at least one of the elements Ta, Nb and/or W, B) heating of the first arrangement in a first soldering step in such a way that the Zr solder but not the intermediate layer melts and a part composite body is obtained, C) production of a second arrangement of the part composite body, a second solder (40, 42) adjoining the intermediate layer and the second section (6; 24) in this order, where the second solder (40, 42) is formed by precisely one material from the group consisting of Ti, Ti-based solder combination, V-based solder combination, Zr or Zr-based solder combination and is selected so that it melts at a lower temperature than the first Zr solder in the second arrangement, and D) heating of the second arrangement in a second soldering step in such a way that the second solder (40, 42) but not the soldered bond obtained from the first Zr solder melts.
A combined lipstick, lip gloss and lip liner bullet comprising: a body defining a longitudinal axis and a cross-section of the bullet, the cross-section defining a periphery of the body, and the body further comprising: an application face approximately defined by the cross-section of the bullet, the application face having an upper portion and a lower portion; a lip gloss core centered in the body along the longitudinal axis; a lipstick sheath coaxially enveloping the lip gloss core; an upper lip liner part positioned in the sheath such that an end is exposed in the upper portion of the application face on the periphery, the upper lip liner part extending parallel to the longitudinal axis on a first side of the body; and a lower lip liner part positioned in the sheath such that an end is exposed in the lower portion of the application face on the periphery, the lower lip liner part extending parallel to the longitudinal axis on a second side of the body opposite the first side. a body defining a longitudinal axis and a cross-section of the bullet, the cross-section defining a periphery of the body, and the body further comprising: an application face approximately defined by the cross-section of the bullet, the application face having an upper portion and a lower portion; a lip gloss core centered in the body along the longitudinal axis; a lipstick sheath coaxially enveloping the lip gloss core; an upper lip liner part positioned in the sheath such that an end is exposed in the upper portion of the application face on the periphery, the upper lip liner part extending parallel to the longitudinal axis on a first side of the body; and a lower lip liner part positioned in the sheath such that an end is exposed in the lower portion of the application face on the periphery, the lower lip liner part extending parallel to the longitudinal axis on a second side of the body opposite the first side. an application face approximately defined by the cross-section of the bullet, the application face having an upper portion and a lower portion; a lip gloss core centered in the body along the longitudinal axis; a lipstick sheath coaxially enveloping the lip gloss core; an upper lip liner part positioned in the sheath such that an end is exposed in the upper portion of the application face on the periphery, the upper lip liner part extending parallel to the longitudinal axis on a first side of the body; and a lower lip liner part positioned in the sheath such that an end is exposed in the lower portion of the application face on the periphery, the lower lip liner part extending parallel to the longitudinal axis on a second side of the body opposite the first side.