mhurhangee/ep-ind-claims huggingface dataset:
Method for manufacturing a stiffened panel of composite materials, comprising: - a skin in laminar form that comprises an inner face (1.1) and an outer face (1.2), and - stiffeners (3, 4) located on the inner face (1.1) of said skin and situated in longitudinal and transverse directions thereto, wherein the manufacturing method comprises the following steps: - providing a skin, - making a plurality of through drill holes on the skin located in correspondence with areas where the placement of stiffeners (3, 4) is expected, - introducing threaded bolts in the through drill holes, wherein the threaded bolts comprise a body and a head, such that the head of the threaded bolt remains housed in the skin, - after the introduction of the bolts through the skin, locating a threaded nut on the free end of the threaded bolts opposite the head, - once the bolts have been introduced into the skin, manufacturing the stiffeners (3, 4) on the inner face (1.1) of the skin by stacking on top of the inner face (1.1) of the skin a plurality of layers of composite material such that the threaded bolts and the threaded nut remain embedded within the stiffeners (3, 4) - a skin in laminar form that comprises an inner face (1.1) and an outer face (1.2), and - stiffeners (3, 4) located on the inner face (1.1) of said skin and situated in longitudinal and transverse directions thereto, - providing a skin, - making a plurality of through drill holes on the skin located in correspondence with areas where the placement of stiffeners (3, 4) is expected, - introducing threaded bolts in the through drill holes, wherein the threaded bolts comprise a body and a head, such that the head of the threaded bolt remains housed in the skin, - after the introduction of the bolts through the skin, locating a threaded nut on the free end of the threaded bolts opposite the head, - once the bolts have been introduced into the skin, manufacturing the stiffeners (3, 4) on the inner face (1.1) of the skin by stacking on top of the inner face (1.1) of the skin a plurality of layers of composite material such that the threaded bolts and the threaded nut remain embedded within the stiffeners (3, 4)
A method of forming an overlay-visor comprising a viewing area and a spacer extending along at least a portion of a periphery of the viewing area, comprising the steps of: - injection molding, extruding, nozzling, beading, and/or caulking a bead of fluid elastomeric material onto a surface of the overlay-sheet to form a spacer; wherein the elastomeric material is tacky when set and/or cured; characterized in that the elastomeric material is a polymer selected from natural rubber, acrylics, nitriles, styreneisoprene block copolymers, silicones, vinyl ethers, and butyl rubber; and a tackifier is added to each of the polymers, wherein the tackifier is a rosin ester or a terpene resin, or an MQ silicate resin when the polymer is silicone. - injection molding, extruding, nozzling, beading, and/or caulking a bead of fluid elastomeric material onto a surface of the overlay-sheet to form a spacer; the elastomeric material is a polymer selected from natural rubber, acrylics, nitriles, styreneisoprene block copolymers, silicones, vinyl ethers, and butyl rubber; and a tackifier is added to each of the polymers, wherein the tackifier is a rosin ester or a terpene resin, or an MQ silicate resin when the polymer is silicone.
Transverse cooling assembly able to be fixed to a front transverse element of a motor vehicle body structure, comprising an element able to duct the cooling air or convergent, a cooling radiator, and an electric cooling fan unit, which are borne respectively by first, second and third associated supports in the form of frames, the first and third supports being fixed one on either side of the second support by lower means (26a, 26b) of attachment by tilting and upper means (28a, 28b) of attachment by clip-fastening, so as to allow each first and/or third support successively to be introduced vertically in an inclined position onto the second support then allow the first and/or third support to be stood up vertically parallel to the second support then allow said first and/or third support to be clipped in the longitudinal direction to the second support, characterized in that the fixing means (26a, 26b, 28a, 28b, 28) comprise means of absorbing manufacturing spread in the longitudinal, transverse and vertical directions, and in that the lower means (26a, 26b) of fixing by tilting comprise: - a vertical lower face (30a, 30b) of the first support and/or of the third support, which can be received against a vertical lower face of the second support, and - two forks (34a, 34b) having two vertical prongs (36a, 36b), borne by the transversely opposite ends of a lower edge (38a, 38b) of the first and/or third support, each fork (34a, 34b) being received vertically astride an associated bracket (40a, 40b) which extends longitudinally from the second support, said bracket (40a, 40b) bearing two pairs of projecting transverse fingers (42a, 42b) of which the longitudinal space corresponds to the thickness of the prongs (36a, 36b) of the fork (34a, 34b) so as to immobilize the fork (34a, 34b) longitudinally after it has been introduced and so as to absorb manufacturing spread in the vertical direction. - a vertical lower face (30a, 30b) of the first support and/or of the third support, which can be received against a vertical lower face of the second support, and - two forks (34a, 34b) having two vertical prongs (36a, 36b), borne by the transversely opposite ends of a lower edge (38a, 38b) of the first and/or third support, each fork (34a, 34b) being received vertically astride an associated bracket (40a, 40b) which extends longitudinally from the second support, said bracket (40a, 40b) bearing two pairs of projecting transverse fingers (42a, 42b) of which the longitudinal space corresponds to the thickness of the prongs (36a, 36b) of the fork (34a, 34b) so as to immobilize the fork (34a, 34b) longitudinally after it has been introduced and so as to absorb manufacturing spread in the vertical direction.
Medium conduit suitable for transport of a medium using pressure and suitable for receiving a cable, which medium conduit comprises a pipe and is provided with a first cable passage at a first longitudinal position on the pipe and suitable for passage of the cable, so that a portion of the cable can lie outside the pipe at the first longitudinal position, characterized in that the cable passage forms part of a manifold (40, 60) which is rotatable relative to an axis through the pipe between a protected position and a servicing position.
A light generating system comprising (i) a plurality of light sources (110,120,...), (ii) a first luminescent material, and (iii) a second luminescent material, wherein: - a first light source is configured to generate first light source light having one or more wavelengths in the blue wavelength range and having a first centroid wavelength (λ C1), wherein the first light source comprises a laser; - the first luminescent material is configured to convert at least part of the first light source light into first luminescent material light having one or more wavelengths in the green and/or yellow wavelength range; - a second light source is configured to generate second light source light having one or more wavelengths in the yellow and/or orange wavelength range and having a second centroid wavelength (λ C2), wherein λ C2 >λ C1; wherein the second light source comprises a superluminescent diode; - the second luminescent material is configured to convert at least part of the second light source light into second luminescent material light having one or more wavelengths in the orange and/or red wavelength range; and - in an operational mode the light generating system is configured to generate system light comprising the first luminescent material light and the second luminescent material light. - a first light source is configured to generate first light source light having one or more wavelengths in the blue wavelength range and having a first centroid wavelength (λ C1), wherein the first light source comprises a laser; - the first luminescent material is configured to convert at least part of the first light source light into first luminescent material light having one or more wavelengths in the green and/or yellow wavelength range; - a second light source is configured to generate second light source light having one or more wavelengths in the yellow and/or orange wavelength range and having a second centroid wavelength (λ C2), wherein λ C2 >λ C1; wherein the second light source comprises a superluminescent diode; - the second luminescent material is configured to convert at least part of the second light source light into second luminescent material light having one or more wavelengths in the orange and/or red wavelength range; and - in an operational mode the light generating system is configured to generate system light comprising the first luminescent material light and the second luminescent material light.
A hinge having a side part fixable on a wall and a hinge part, which is pivotable in relation to the side part and is fixable on a door, wherein two levers (4, 5), which are each rotatably mounted on the side part and on the hinge part, are provided between the side part and the hinge part, and a linear damper arranged in the side part having a housing and a piston rod, whereby a control curve is integrally formed on a first one of the levers, which control curve compresses the linear damper during a closing movement, wherein the housing of the linear damper is immovably fixed in the side part and the piston rod is movable by the control curve, characterized in that the control curve is formed on at least one curved web of the first lever, and slides along a pin of the hinge, which is operationally connected to the linear damper.
A method for desalinating a salt-containing polymer comprising a polyaryl ether and a salt, comprising the steps of a) mechanically increasing the surface area of the salt-containing polymer to obtain a salt-containing polymer of increased surface area (SPISA), b) contacting the salt-containing polymer of increased surface area (SPISA) from method step a) with an extractant to obtain a desalinated polymer comprising the polyaryl ether, and a salt-containing extractant comprising the extractant and the salt, the surface area of the salt-containing polymer being mechanically increased in method step a) by foaming or drawing the salt-containing polymer. a) mechanically increasing the surface area of the salt-containing polymer to obtain a salt-containing polymer of increased surface area (SPISA), b) contacting the salt-containing polymer of increased surface area (SPISA) from method step a) with an extractant to obtain a desalinated polymer comprising the polyaryl ether, and a salt-containing extractant comprising the extractant and the salt, the surface area of the salt-containing polymer being mechanically increased in method step a) by foaming or drawing the salt-containing polymer.
Apparatus comprising a brush seal welding fixture, bristles and a brush seal plate, the fixture comprising: a base having first bristle alignment features; a shuttle configured to receive the base, the shuttle having second bristle alignment features; and a cover secured or for securing to the base and configured to retain the bristles and the brush seal plate in engagement with one another in a desired orientation, which includes providing a flush surface between the bristles and the brush seal plate, wherein the second bristle alignment features comprise an inner diameter surface configured to diametrically align radially outer edges of the bristles to a radially outer perimeter edge of the brush seal plate to provide the flush surface; the fixture further comprising: a laser welder arranged in proximity to the bristles and the brush seal plate configured to weld the bristles and the brush seal plate to one another at the flush surface. a base having first bristle alignment features; a shuttle configured to receive the base, the shuttle having second bristle alignment features; and a cover secured or for securing to the base and configured to retain the bristles and the brush seal plate in engagement with one another in a desired orientation, which includes providing a flush surface between the bristles and the brush seal plate, wherein the second bristle alignment features comprise an inner diameter surface configured to diametrically align radially outer edges of the bristles to a radially outer perimeter edge of the brush seal plate to provide the flush surface; the fixture further comprising: a laser welder arranged in proximity to the bristles and the brush seal plate configured to weld the bristles and the brush seal plate to one another at the flush surface.
A peptide selected from the group of a) a peptide consisting of the amino acid sequence according to SEQ ID No. 3, and b) a peptide according to a), wherein one or two of the amino acid residues are altered in that amino acid A at position 1 is replaced with any of I, L, F, K, M, Y, or V, amino acid I at position 2 is replaced with any of M, or L, amino acid I at position 3 is replaced with any of A, Y, F, P, M, S or R, amino acid D at position 4 is replaced with any of E, G, P or T, amino acid G at position 5 is replaced with any of I, K, Y, N, F, or V, amino acid V at position 6 is replaced with any of I, L, or T, amino acid E at position 7 is replaced with any of A, Y, or H, amino acid S at position 8 is replaced with any of K or E, and amino acid V at position 9 is replaced with L, wherein said peptide maintains the ability to bind to a molecule of the human major histocompatibility complex class-I, and wherein said peptide is capable of stimulating CD8 T cells. a) a peptide consisting of the amino acid sequence according to SEQ ID No. 3, and b) a peptide according to a), wherein one or two of the amino acid residues are altered in that
A side rail for a medical table, the side rail comprising: an elongated body having a height and a width that are configured to be received by a medical accessory, wherein the elongated body is formed of a material having a modulus of elasticity that is about 50 gigapascals to about 150 gigapascals and a yield strength that is about 40 x 10 7 pascals to about 120 x 10 7 pascals, wherein the height is about 25 mm to about 30 mm and the width is about 8 mm to about 10 mm. an elongated body having a height and a width that are configured to be received by a medical accessory, wherein the elongated body is formed of a material having a modulus of elasticity that is about 50 gigapascals to about 150 gigapascals and a yield strength that is about 40 x 10 7 pascals to about 120 x 10 7 pascals, wherein the height is about 25 mm to about 30 mm and the width is about 8 mm to about 10 mm.
Process for the additive manufacture of a part by partial or complete selective melting of a powder within a machine, said machine comprising: - a working surface intended to receive a powder layer, - a device for spreading the said powder layer along at least one longitudinal horizontal direction over the working surface, - at least one injector for directly injecting powder over the working surface, the injector being movable with respect to the working surface along at least one transverse horizontal direction, - a system for regulating the amount of powder dispensed by the injector, the process comprising the following stages: - moving the injector along a trajectory comprising at least one component parallel to the transverse horizontal direction in order to dispense powder along at least one transverse line L over the working surface; - regulating the amount of powder dispensed by the injector at any point of the trajectory of the injector, the height of powder of the line of dispensed powder varying according to the transverse position on the line of powder. - a working surface intended to receive a powder layer, - a device for spreading the said powder layer along at least one longitudinal horizontal direction over the working surface, - at least one injector for directly injecting powder over the working surface, the injector being movable with respect to the working surface along at least one transverse horizontal direction, - a system for regulating the amount of powder dispensed by the injector, - moving the injector along a trajectory comprising at least one component parallel to the transverse horizontal direction in order to dispense powder along at least one transverse line L over the working surface; - regulating the amount of powder dispensed by the injector at any point of the trajectory of the injector, the height of powder of the line of dispensed powder varying according to the transverse position on the line of powder.
A device, comprising: a digital circuit; a scan chain coupled to the digital circuit, wherein the scan chain, in operation, loads data into the digital circuit and unloads data from the digital circuit; and checking circuitry (124, 126) coupled to the scan chain, wherein the checking circuitry, in operation, generates a first digital signature based on data indicative of a status of the digital circuit before a testing of the digital circuit as the data indicative of said status is unloaded from the digital circuit via the scan chain; when the testing is completed, generates a second digital signature based on the data indicative of the status of the digital circuit before the testing thereof as the data indicative of said status is loaded into the digital circuit via the scan chain; compares the first digital signature to the second digital signature; and generates a control signal based on the comparison. a digital circuit; a scan chain coupled to the digital circuit, wherein the scan chain, in operation, loads data into the digital circuit and unloads data from the digital circuit; and checking circuitry (124, 126) coupled to the scan chain, wherein the checking circuitry, in operation, generates a first digital signature based on data indicative of a status of the digital circuit before a testing of the digital circuit as the data indicative of said status is unloaded from the digital circuit via the scan chain; when the testing is completed, generates a second digital signature based on the data indicative of the status of the digital circuit before the testing thereof as the data indicative of said status is loaded into the digital circuit via the scan chain; compares the first digital signature to the second digital signature; and generates a control signal based on the comparison.
A method for computing joint torques applied by actuators to perform a control of a movement of a robot arm having several degrees of freedom (DoF), characterized in that the method comprises the steps of: (a) providing by a trajectory generator trajectory vectors (x) specifying a desired trajectory comprising a position, velocity and acceleration of the robot arm for each degree of freedom (DoF); (b) mapping the trajectory vectors (x) into corresponding latent representation vectors (a) which capture inherent properties of the robot arm using basis functions with trained parameters, wherein the basis functions are functions which are trained on a data set comprising joint torques (t) and corresponding trajectories of the robot arm; (c) multiplying the latent representation vectors (a) with trained core tensors to compute the joint torques (t) for each degree of freedom (DoF) wherein the number of trained core tensors corresponds to the number of degrees of freedom (DoF) of the robot arm to be controlled. (a) providing by a trajectory generator trajectory vectors (x) specifying a desired trajectory comprising a position, velocity and acceleration of the robot arm for each degree of freedom (DoF); (b) mapping the trajectory vectors (x) into corresponding latent representation vectors (a) which capture inherent properties of the robot arm using basis functions with trained parameters, wherein the basis functions are functions which are trained on a data set comprising joint torques (t) and corresponding trajectories of the robot arm; (c) multiplying the latent representation vectors (a) with trained core tensors to compute the joint torques (t) for each degree of freedom (DoF) wherein the number of trained core tensors corresponds to the number of degrees of freedom (DoF) of the robot arm to be controlled.
An enclosure for housing electrical equipment comprising at least one opening sealed with a port for inhibiting electromagnetic radiation, the port being arranged to seal the opening and to allow for the passage of one or more electrical cables through the opening, wherein the port comprises at least one slit arranged to engage the one or more cables, wherein the or each slit is provided in a sealing member of unitary construction, which comprises a resilient conductive material arranged to seal the opening, and wherein the slit terminates at at least one end in a sealable opening, which comprises a flap that is arranged to allow the passage of a connector, which is provided at the end of a cable, through the opening, and wherein the port further comprises a housing within which the sealing member is mounted, characterized in that the resilient material is conductive foam, the housing is arranged to urge the sealing member against a wall of the enclosure within which the opening to be sealed is provided, and the slit is arranged such that once the connector has been fed through the sealable opening, the cable can be slid within the slit laterally of a longitudinal axis of the cable.