mhurhangee/ep-ind-claims huggingface dataset:
Apparatus (100, A, B, 1100) with a spectacle lens for supplying power to an active ocular implant in an eye (201; 1800) of a user, comprising: a light source, a beam expander arranged in or on the spectacle lens, wherein the beam expander comprises a first expansion element and a second expansion element, wherein the apparatus is set up to input couple light from the light source into the spectacle lens and guide said light to the first expansion element, wherein the first expansion element is set up to receive the light, expand said light along a first direction and guide at least some of the light as expanded light in a second direction to the second expansion element, wherein the second direction differs from the first direction, and wherein the second expansion element is set up to receive the expanded light, expand said expanded light along the second direction and provide said expanded light as twice expanded light in a third direction via an emission surface, wherein the third direction at least partly does not extend in the spectacle lens, wherein the second expansion element is set up to effectively focus the twice expanded light. a light source, a beam expander arranged in or on the spectacle lens, wherein the beam expander comprises a first expansion element and a second expansion element, wherein the apparatus is set up to input couple light from the light source into the spectacle lens and guide said light to the first expansion element, wherein the first expansion element is set up to receive the light, expand said light along a first direction and guide at least some of the light as expanded light in a second direction to the second expansion element, wherein the second direction differs from the first direction, and wherein the second expansion element is set up to receive the expanded light, expand said expanded light along the second direction and provide said expanded light as twice expanded light in a third direction via an emission surface, wherein the third direction at least partly does not extend in the spectacle lens, wherein the apparatus is set up to input couple light from the light source into the spectacle lens and guide said light to the first expansion element, wherein the first expansion element is set up to receive the light, expand said light along a first direction and guide at least some of the light as expanded light in a second direction to the second expansion element, wherein the second direction differs from the first direction, and wherein the second expansion element is set up to receive the expanded light, expand said expanded light along the second direction and provide said expanded light as twice expanded light in a third direction via an emission surface, wherein the third direction at least partly does not extend in the spectacle lens, wherein the second expansion element is set up to effectively focus the twice expanded light.
Assembly for moving a cover for a vehicle roof, comprising: - a mechanical component which is coupled to the cover, - a carriage which is guided in a guide rail, and - a deployment element which is extended along a longitudinal axis in an elongate manner, wherein - the mechanical component is coupled to the deployment element at a first end of said deployment element, in order to transmit a movement of the carriage along a longitudinal direction in sections to the mechanical component, - a locking pin is arranged at a second end of the deployment element, characterized in that - the locking pin can be rotated about the longitudinal axis of the deployment element, in order to be moved between a first state and a second state, wherein the deployment element is locked in the first state preventing movement along the longitudinal direction relative to the carriage, and is locked in the second state preventing movement along the longitudinal direction relative to the guide rail. - a mechanical component which is coupled to the cover, - a carriage which is guided in a guide rail, and - a deployment element which is extended along a longitudinal axis in an elongate manner, wherein - the mechanical component is coupled to the deployment element at a first end of said deployment element, in order to transmit a movement of the carriage along a longitudinal direction in sections to the mechanical component, - a locking pin is arranged at a second end of the deployment element, characterized in that - the locking pin can be rotated about the longitudinal axis of the deployment element, in order to be moved between a first state and a second state, wherein the deployment element is locked in the first state preventing movement along the longitudinal direction relative to the carriage, and is locked in the second state preventing movement along the longitudinal direction relative to the guide rail.
A system for controlling a cutting apparatus of a header of an agricultural harvester, the system comprising the cutting apparatus, and the cutting apparatus comprising: - a first wheel and a second wheel, both having a drive surface; - a drive source configured to selectively drive the first wheel in one of a clockwise direction and an anticlockwise direction; - a knife carrier that comprises a loop having a running side and a knife-carrying side, and wherein the loop is tensioned around the first and second wheels (114, 116) so that the running side is engaged by the drive surfaces of the first and second wheels (114, 116) for transmitting torque from the drive source to rotate the wheels (114, 116) and the knife carrier; and - a plurality of knives for cutting crop, the knives having two cutting blades and being mounted to the knife-carrying surface of the knife carrier; the system being characterized in that the cutting apparatus further comprises - a sensor for monitoring operation of the knives, and in that the system further comprises a controller, operatively coupled to the sensor and the drive source, and configured to receive a signal from the sensor indicative of the operation of the knives and to generate a control signal for controlling the drive source in dependence of the signal received from the sensor. - a first wheel and a second wheel, both having a drive surface; - a drive source configured to selectively drive the first wheel in one of a clockwise direction and an anticlockwise direction; - a knife carrier that comprises a loop having a running side and a knife-carrying side, and wherein the loop is tensioned around the first and second wheels (114, 116) so that the running side is engaged by the drive surfaces of the first and second wheels (114, 116) for transmitting torque from the drive source to rotate the wheels (114, 116) and the knife carrier; and - a plurality of knives for cutting crop, the knives having two cutting blades and being mounted to the knife-carrying surface of the knife carrier; - a sensor for monitoring operation of the knives,
Method for generating validated control commands for an autonomous road vehicle, characterized in that it comprises: providing as input data to an end-to-end trained neural network system raw sensor data from on-board sensors of the autonomous road vehicle as well as object-level data and tactical information data; mapping, by the end-to-end trained neural network system, input data (5, 7, 8) to estimates of control commands for the autonomous road vehicle over pre-set time horizons and outputting from the end-to-end trained neural network system the estimates of control commands over the pre-set time horizons; subjecting the estimates of control commands for the autonomous road vehicle over the pre-set time horizons to a safety module arranged to perform risk assessment of planned trajectories resulting from the estimates of control commands for the autonomous road vehicle over the pre-set time horizons, said safety module receiving also raw sensor data and object-level data as input; validating as safe and outputting from the safety module validated control commands for the autonomous road vehicle. providing as input data to an end-to-end trained neural network system raw sensor data from on-board sensors of the autonomous road vehicle as well as object-level data and tactical information data; mapping, by the end-to-end trained neural network system, input data (5, 7, 8) to estimates of control commands for the autonomous road vehicle over pre-set time horizons and outputting from the end-to-end trained neural network system the estimates of control commands over the pre-set time horizons; subjecting the estimates of control commands for the autonomous road vehicle over the pre-set time horizons to a safety module arranged to perform risk assessment of planned trajectories resulting from the estimates of control commands for the autonomous road vehicle over the pre-set time horizons, said safety module receiving also raw sensor data and object-level data as input; validating as safe and outputting from the safety module validated control commands for the autonomous road vehicle.
An elevator comprising - a hoistway, - an elevator car, - a first counterweight (2a, 12a, 22a, 32a, 42a, 52a, 62a, 72a) and a second counterweight (2b, 12b, 22b, 32b, 42b, 52b, 62b, 72b), which counterweights are each connected to the elevator car, - a first vertical guide profile (3a, 13a, 23a, 33a, 43a, 53a, 63a, 73a) arranged to guide the first counterweight (2a, 12a, 22a, 32a, 42a, 52a, 62a, 72a), - a second vertical guide profile (3b, 13b, 23b, 33b, 43b, 53b, 63b, 73b) arranged to guide the second counterweight (2b, 12b, 22b, 32b, 42b, 52b, 62b, 72b), - a lower platform, - an upper platform, characterized in that the elevator comprises a plurality of vertically spaced apart horizontal bars connecting said guide profiles (3a, 13a, 23a, 33a, 43a, 53a, 63a, 73a and 3b, 13b, 23b, 33b, 43b, 53b, 63b, 73b) and distributed at regular intervals between the upper and lower platform (P1,P2), said horizontal bars forming the cross-pieces of a ladder for people to climb up or down. - a hoistway, - an elevator car, - a first counterweight (2a, 12a, 22a, 32a, 42a, 52a, 62a, 72a) and a second counterweight (2b, 12b, 22b, 32b, 42b, 52b, 62b, 72b), which counterweights are each connected to the elevator car, - a first vertical guide profile (3a, 13a, 23a, 33a, 43a, 53a, 63a, 73a) arranged to guide the first counterweight (2a, 12a, 22a, 32a, 42a, 52a, 62a, 72a), - a second vertical guide profile (3b, 13b, 23b, 33b, 43b, 53b, 63b, 73b) arranged to guide the second counterweight (2b, 12b, 22b, 32b, 42b, 52b, 62b, 72b), - a lower platform, - an upper platform, characterized in that the elevator comprises a plurality of vertically spaced apart horizontal bars connecting said guide profiles (3a, 13a, 23a, 33a, 43a, 53a, 63a, 73a and 3b, 13b, 23b, 33b, 43b, 53b, 63b, 73b) and distributed at regular intervals between the upper and lower platform (P1,P2), said horizontal bars forming the cross-pieces of a ladder for people to climb up or down.
Modular plant for performing conversion processes of at least one carbonaceous matrix, said plant including at least one basic module including at least: - a reactor rotating about a central longitudinal axis having an inclination from 0° to 45° in respect to a horizontal plan, said rotating reactor having a substantially cylindrical centre body closed at a first entrance end by a stationary head and at a second end by a head fixed to the rotating reactor, a first conduit for introducing said matrix into the rotating reactor and a second conduit for introducing a thermally conductive carrier into the rotating reactor being fixed to said stationary head, - a stationary casing which integrally encloses said rotating reactor, whereby it is sealed in respect to the external environment, said casing having openings for the passage of said first and second conduit, as well as for the exit of the converted carbonaceous matrix (17, 19) and the thermally conductive carrier, and - an assembly for rotatably driving said rotating reactor which is deprived of internal members having a relative rotation motion in respect of said cylindrical body. - a reactor rotating about a central longitudinal axis having an inclination from 0° to 45° in respect to a horizontal plan, said rotating reactor having a substantially cylindrical centre body closed at a first entrance end by a stationary head and at a second end by a head fixed to the rotating reactor, a first conduit for introducing said matrix into the rotating reactor and a second conduit for introducing a thermally conductive carrier into the rotating reactor being fixed to said stationary head, - a stationary casing which integrally encloses said rotating reactor, whereby it is sealed in respect to the external environment, said casing having openings for the passage of said first and second conduit, as well as for the exit of the converted carbonaceous matrix (17, 19) and the thermally conductive carrier, and - an assembly for rotatably driving said rotating reactor which is deprived of internal members having a relative rotation motion in respect of said cylindrical body.
Method of processing a sliding component, the sliding component comprising a pair of sliding parts (3, 5), the sliding component comprising a plurality of dimples being formed by irradiation with an ultrashort pulse laser generated by an ultrashort pulse laser oscillator, wherein the plurality of dimples is disposed on at least one of sliding faces of the pair of sliding parts (3, 5) relatively sliding on each other, and being provided mutually independently of the other dimples and disposed in a randomly distributed manner, each of the dimples constituting a shallow groove with a depth in a range of 0.05 μm to 10 μm, and the plurality of dimples has an opening diameter set in a range of 10 to 500 μm, characterized in that the dimples have a bottom surface whose roughness Ra is 1/10 or less of a processing depth, wherein a protuberance formed by debris at an edge of a processed portion is less than 0.01 μm, wherein the sliding part (3, 5) is formed from one material of SiC, Al2O3, and ceramics, the ultrashort pulse laser has a repetition frequency of 5 kHz or higher and a pulse width of less than 10 picoseconds, and the energy fluence of the ultrashort pulse laser is in a range of 0.5 J/(cm 2 ·pulse) to 7 J/(cm 2 ·pulse). the sliding component comprising a plurality of dimples being formed by irradiation with an ultrashort pulse laser generated by an ultrashort pulse laser oscillator, wherein the plurality of dimples is disposed on at least one of sliding faces of the pair of sliding parts (3, 5) relatively sliding on each other, and being provided mutually independently of the other dimples and disposed in a randomly distributed manner, each of the dimples constituting a shallow groove with a depth in a range of 0.05 μm to 10 μm, and the plurality of dimples has an opening diameter set in a range of 10 to 500 μm, characterized in that the dimples have a bottom surface whose roughness Ra is 1/10 or less of a processing depth, wherein a protuberance formed by debris at an edge of a processed portion is less than 0.01 μm, wherein the sliding part (3, 5) is formed from one material of SiC, Al2O3, and ceramics, the ultrashort pulse laser has a repetition frequency of 5 kHz or higher and a pulse width of less than 10 picoseconds, and the energy fluence of the ultrashort pulse laser is in a range of 0.5 J/(cm 2 ·pulse) to 7 J/(cm 2 ·pulse).
An electronic device assembly comprising: an electronic device having a mount that includes a mounting opening, the mounting opening being configured to receive mounting hardware therein for mounting the electronic device to a structure; and an isolator coupled to the mount, the isolator comprising an elastomeric bushing configured to attenuate at least one of shock or vibration exerted on the electronic device, wherein the isolator is incorporated within the mount such that the elastomeric bushing is received into the mounting opening of the mount, wherein the isolator further comprises a bobbin that includes a first bobbin member and a second bobbin member that is discrete from the first bobbin member, the elastomeric bushing extending around the bobbin, characterised in that the first and second bobbin members (36a, 36b) have a first and second shaft segment (42a, 42b) which are coupled together using at least one of a press-fit, a bonding agent, or threads. an electronic device having a mount that includes a mounting opening, the mounting opening being configured to receive mounting hardware therein for mounting the electronic device to a structure; and an isolator coupled to the mount, the isolator comprising an elastomeric bushing configured to attenuate at least one of shock or vibration exerted on the electronic device, wherein the isolator is incorporated within the mount such that the elastomeric bushing is received into the mounting opening of the mount, wherein the isolator further comprises a bobbin that includes a first bobbin member and a second bobbin member that is discrete from the first bobbin member, the elastomeric bushing extending around the bobbin, characterised in that the first and second bobbin members (36a, 36b) have a first and second shaft segment (42a, 42b) which are coupled together using at least one of a press-fit, a bonding agent, or threads.
A direct sequence spread spectrum transmitter comprising: an encoder to interleave a first pseudo-noise sequence with a second pseudo-noise sequence to provide a third pseudo-noise sequence, wherein the third sequence is a known pseudo-noise sequence produced by an XOR of the first and second pseudo-noise sequences, and an XOR of the first and second pseudo-noise sequences with an offset of one chip period between the first and second pseudo-noise sequences; and an RF transmitter to transmit said third pseudo-noise sequence. an encoder to interleave a first pseudo-noise sequence with a second pseudo-noise sequence to provide a third pseudo-noise sequence, wherein the third sequence is a known pseudo-noise sequence produced by an XOR of the first and second pseudo-noise sequences, and an XOR of the first and second pseudo-noise sequences with an offset of one chip period between the first and second pseudo-noise sequences; and an RF transmitter to transmit said third pseudo-noise sequence.
A system for avoiding pinching in vehicle doors, comprising capacitive proximity sensors for being mounted at each door along the closing surfaces, wherein the system further comprises an accelerometer for being arranged in each door, a stopper bar arranged at each door such that when activated it prevents the door from closing entirely, and a release mechanism for the stopper bar, the capacitive proximity sensors, the accelerometer, and the release mechanism being connected to a control unit arranged such that the stopper bar is moved to a blocking position when the capacitive proximity sensor for the same door senses an object and the door has stopped accelerating.
Mantle terminal for establishing conductive contact, which mantle terminal comprises a u-shaped threaded bolt for inserting a cable and a cap nut for screwing onto the threaded bolt, comprising: an insulating body, in which the cap nut is rotatably mounted, and a base plate; characterized in that the insulating body comprises a lateral plug-in section; and the base plate, on which the threaded bolt is fastened, having a lateral receptacle for captively receiving the lateral plug-in section of the insulating body, wherein the lateral plug-in section of the insulating body is arranged parallel in relation to the rotation axis of the cap nut.
Flywheel system, comprising: - a ring-shaped flywheel rotor, arranged on a rotation axis; and - a substantially cylindrical casing, enveloping the flywheel rotor at least in a radial direction to contain the flywheel in case of a calamity, CHARACTERISED in that - the casing comprises at least one inward protruding bumper defining a variation from the circular shape in cross section of the casing wall surrounding the flywheel rotor. - a ring-shaped flywheel rotor, arranged on a rotation axis; and - a substantially cylindrical casing, enveloping the flywheel rotor at least in a radial direction to contain the flywheel in case of a calamity, CHARACTERISED in that - the casing comprises at least one inward protruding bumper defining a variation from the circular shape in cross section of the casing wall surrounding the flywheel rotor.
A pentamethylene diisocyanate obtained by phosgenating pentamethylenediamine or its salt obtained by a biochemical method, wherein the pentamethylene diisocyanate contains 5 to 400 ppm of a compound represented by the general formula below and a compound represented by the general formula below in total:
A float sensor for assembly with a vertical wall of a tank comprising: a float sensor body having a base and a flange extending from the base; an elastomeric grommet surrounding the base of the float sensor body and abutting the flange for sealing the base to an opening in a tank wall with the flange mounted external to the tank; a horizontal shaft extending from the base of the float sensor body, the horizontal shaft having a portion adjacent the base of the float sensor body and a portion distal from the base of the float sensor body, wherein the portion adjacent the base of the float sensor body contains a magnetically activated switch; a float having a body portion, an activation magnet mounted to the body portion; characterized in that the portion distal from the base forms a vertical opening that passes through the horizontal shaft and in that the float includes a downwardly depending vertical member that is positioned within the vertical opening, the vertical member having at least one resilient biasing member that resists removal of the float from the horizontal shaft, wherein vertical motion of the float moves the activation magnet with respect to the magnetically activated switch causing the magnetically activated switch to change state. a float sensor body having a base and a flange extending from the base; an elastomeric grommet surrounding the base of the float sensor body and abutting the flange for sealing the base to an opening in a tank wall with the flange mounted external to the tank; a horizontal shaft extending from the base of the float sensor body, the horizontal shaft having a portion adjacent the base of the float sensor body and a portion distal from the base of the float sensor body, wherein the portion adjacent the base of the float sensor body contains a magnetically activated switch; a float having a body portion, an activation magnet mounted to the body portion; characterized in that the portion distal from the base forms a vertical opening that passes through the horizontal shaft and in that the float includes a downwardly depending vertical member that is positioned within the vertical opening, the vertical member having at least one resilient biasing member that resists removal of the float from the horizontal shaft, wherein vertical motion of the float moves the activation magnet with respect to the magnetically activated switch causing the magnetically activated switch to change state.
Process for production of polyurethane systems by reacting at least one polyol component with at least one isocyanate component in the presence of one or more catalysts for the isocyanate-polyol and/or isocyanate-water reactions and/or the trimerization of isocyanate, characterized in that said reacting is carried out in the presence of one or more compounds obtainable by reacting a guanidine salt with a polyamine.
A fusion protein comprising (a) a Cas9 variant comprising one or more mutations within a RuvC1 subdomain and/or a HNH subdomain that inactivate Cas9 nuclease activity; and (b) a deaminase domain. (a) a Cas9 variant comprising one or more mutations within a RuvC1 subdomain and/or a HNH subdomain that inactivate Cas9 nuclease activity; and (b) a deaminase domain.