mhurhangee/ep-ind-claims huggingface dataset:
A fish lock for overcoming differences in level within watercourses in order to enable a migration of organisms in both directions, wherein the fish lock consists of two chambers (5, 6) which both have at least one opening with a closure member (7, 8) to the upstream water and at least one below the water level opening with a closure member (9, 10) to the downstream water and a channel connecting the two chambers (5, 6) and a device designed as a turbine which is equipped for energy conversion in which the closure members (7, 8, 9, 10) are alternately operated so that one chamber is always only open to the upstream water and the other chamber is always only open to the downstream water and is accessible to aquatic organisms and where water can flow as a lock flow into the chamber open to the upstream water through the channel with the turbine into the chamber open to the downstream water and from there can escape into the downstream water, characterised in that the channel comprises two channel entrances provided with fine screens, wherein the first channel entrance borders the first chamber and the second channel entrance borders the second chamber, wherein in a first operational state, the first chamber is connected with the upstream water by opening a first closure member and the second chamber is connected with the downstream water by opening a second closure member, and the other two shutters are closed, and where water flows from the first chamber through the channel in a first direction and wherein, in a second operational state, the first chamber is connected with the downstream water by opening a third closure member and the second chamber is connected with the upstream water by opening a fourth closure member and the other two closure members are closed and where water flows from the second chamber through the channel in a second, opposite direction.
Clamp lock with a closing latch fixed deviatably to a holding fixture and a connecting rod to lock and unlock the closing latch for both the adjacent blade position and the set off blade position, whereat the connecting rod features a first lobe arranged on the storage side, characterized in that a second lobe arranged away from the storage at the end of the closing latch is provided for blocking the closing latch in the set off blade position.
Viscometer having a hollow cylinder rotatably mounted about its longitudinal axis in a base frame, in which a, in particular cylindrical, measuring component through which fluid to be tested can flow, is rotatably mounted, characterised in that, - an electromagnetic drive with a stator and a rotor is provided for the hollow cylinder, by means of which the hollow cylinder can be rotated in the base frame, wherein the stator of the drive is supported on the base frame and the rotor of the drive is supported by the hollow cylinder, and that - to electromagnetically couple the stator to the rotor, an annular rotor driven by the stator is rotatably mounted about the longitudinal axis of the hollow cylinder between the stator and the rotor, such that the base frame and the hollow cylinder are mechanically decoupled as regards the electromagnetic drive and the specified torque can be transmitted by the electromagnetic drive to the hollow cylinder and, at the same time, the forces acting axially and radially on the hollow cylinder are minimised. - an electromagnetic drive with a stator and a rotor is provided for the hollow cylinder, by means of which the hollow cylinder can be rotated in the base frame, wherein the stator of the drive is supported on the base frame and the rotor of the drive is supported by the hollow cylinder, and that - to electromagnetically couple the stator to the rotor, an annular rotor driven by the stator is rotatably mounted about the longitudinal axis of the hollow cylinder between the stator and the rotor, such that the base frame and the hollow cylinder are mechanically decoupled as regards the electromagnetic drive and the specified torque can be transmitted by the electromagnetic drive to the hollow cylinder and, at the same time, the forces acting axially and radially on the hollow cylinder are minimised.
A dispersion which is a colored resin particle dispersion comprising colored resin particles comprising, mixed uniformly with each other, (i) a colorant and (ii) a crosslinked solid resin obtained by crosslinking a reactive solid resin using a crosslinking agent; the reactive solid resin comprises a functional group capable of reacting with the crosslinking agent, and the crosslinking agent comprises at least one of carbodiimide-based compounds, aziridine-based compounds, metal chelate-based compounds, isocyanate-based compounds, melamine-based compounds, epoxy-based compounds, oxazoline-based compounds, urea-based compounds, polyamine-based compounds, polyethyleneimine-based compounds and acrylamide-based compounds, a basic dispersant, and a non-aqueous solvent. colored resin particles comprising, mixed uniformly with each other, (i) a colorant and (ii) a crosslinked solid resin obtained by crosslinking a reactive solid resin using a crosslinking agent; the reactive solid resin comprises a functional group capable of reacting with the crosslinking agent, and the crosslinking agent comprises at least one of carbodiimide-based compounds, aziridine-based compounds, metal chelate-based compounds, isocyanate-based compounds, melamine-based compounds, epoxy-based compounds, oxazoline-based compounds, urea-based compounds, polyamine-based compounds, polyethyleneimine-based compounds and acrylamide-based compounds, (i) a colorant and (ii) a crosslinked solid resin obtained by crosslinking a reactive solid resin using a crosslinking agent; the reactive solid resin comprises a functional group capable of reacting with the crosslinking agent, and the crosslinking agent comprises at least one of carbodiimide-based compounds, aziridine-based compounds, metal chelate-based compounds, isocyanate-based compounds, melamine-based compounds, epoxy-based compounds, oxazoline-based compounds, urea-based compounds, polyamine-based compounds, polyethyleneimine-based compounds and acrylamide-based compounds, a basic dispersant, and a non-aqueous solvent.
A portable apparatus for servicing a shock absorber on a landing gear assembly of an aircraft when the aircraft is in a weight on wheels configuration, the shock absorber comprising at least one chamber containing both hydraulic fluid and a gas in fluid communication with each other, wherein the apparatus comprises: a source of gas, and a source of hydraulic fluid, characterised in that the apparatus comprises: a gas delivery system for delivering a pre-set mass of gas into the shock absorber, the gas delivery system including a tank that is arranged to receive gas from the source of gas, the tank also being arranged both to receive gas from the shock absorber and to deliver gas to the shock absorber. a source of gas, and a source of hydraulic fluid, characterised in that the apparatus comprises: a gas delivery system for delivering a pre-set mass of gas into the shock absorber, the gas delivery system including a tank that is arranged to receive gas from the source of gas, the tank also being arranged both to receive gas from the shock absorber and to deliver gas to the shock absorber.
An optical system for use in a spectroscopy procedure, the system comprising: a broadband light source comprising: one or more semiconductor diodes configured to generate a pump signal, which comprises a wavelength shorter than 2.5 microns and a pulse width of at least 100 picoseconds; one or more optical amplifiers coupled to the pump signal and capable of amplifying the pump signal to output an amplified beam with a peak power of at least 500W; one or more optical fibers coupled to the one or more optical amplifiers, configured to receive and transmit the amplified beam to form a first optical beam, the one or more optical fibers comprising an anomalous group-velocity dispersion regime and a modulational instability mechanism that modulates the amplified beam; wherein the amplified beam wavelength resides in the anomalous group-velocity dispersion regime of the one or more optical fibers, and wherein different intensities in the amplified beam can cause relative motion between different parts of the modulated beam produced through modulational instability in the one or more optical fibers; and a nonlinear element coupled to the first fiber capable of receiving and broadening the pump optical spectral width of the first optical beam to at least 100nm through a nonlinear effect in the nonlinear element to form an output beam with an output beam broadened beam spectrum. one or more semiconductor diodes configured to generate a pump signal, which comprises a wavelength shorter than 2.5 microns and a pulse width of at least 100 picoseconds; one or more optical amplifiers coupled to the pump signal and capable of amplifying the pump signal to output an amplified beam with a peak power of at least 500W; one or more optical fibers coupled to the one or more optical amplifiers, configured to receive and transmit the amplified beam to form a first optical beam, the one or more optical fibers comprising an anomalous group-velocity dispersion regime and a modulational instability mechanism that modulates the amplified beam; wherein the amplified beam wavelength resides in the anomalous group-velocity dispersion regime of the one or more optical fibers, and wherein different intensities in the amplified beam can cause relative motion between different parts of the modulated beam produced through modulational instability in the one or more optical fibers; and a nonlinear element coupled to the first fiber capable of receiving and broadening the pump optical spectral width of the first optical beam to at least 100nm through a nonlinear effect in the nonlinear element to form an output beam with an output beam broadened beam spectrum.
An apparatus for use in delivering a stimulating signal by a stimulating medical device having a plurality of electrodes, comprising: a first set of one or more band-pass filters configured to filter a received signal to obtain a first set of one or more band-pass filtered signals; a first set of at least one envelope detector configured to determine a timing envelope by determining an envelope of at least one of the band-pass filtered signals; characterized by a first set of one or more pulse time selectors configured to determine a pulse time based on when a phase of the timing envelope is equal to a specified phase; a first set of one or more amplitude selectors being configured to determine an amplitude for the pulse time; and a transmitter configured to transmit the determined pulse time and amplitude for use in delivering a stimulation signal to one or more of the plurality of electrodes based on the determined pulse time and amplitude. a first set of one or more band-pass filters configured to filter a received signal to obtain a first set of one or more band-pass filtered signals; a first set of at least one envelope detector configured to determine a timing envelope by determining an envelope of at least one of the band-pass filtered signals; characterized by a first set of one or more pulse time selectors configured to determine a pulse time based on when a phase of the timing envelope is equal to a specified phase; a first set of one or more amplitude selectors being configured to determine an amplitude for the pulse time; and a transmitter configured to transmit the determined pulse time and amplitude for use in delivering a stimulation signal to one or more of the plurality of electrodes based on the determined pulse time and amplitude.
An anode composite structure (1d, 1e, 1f) for a lithium-air battery, comprising: a solid electrolyte, below which an anode is disposed; an anode current collector; an anode layer stacked on the anode current collector, the anode layer being metallic lithium, an alloy containing lithium as a main component, or a chemical compound containing lithium as a main component, wherein the anode layer is stacked on a surface of the anode current collector over a range smaller than an area of the anode current collector and is isolated from and in no direct contact with the solid electrolyte; and a separator stacked on the anode layer, wherein the anode layer is sealed in by the separator and the anode current collector; characterized in that the anode composite structure (1d, 1e, 1f) comprises an electron-conducting layer on an inner side of the separator. a solid electrolyte, below which an anode is disposed; an anode current collector; an anode layer stacked on the anode current collector, the anode layer being metallic lithium, an alloy containing lithium as a main component, or a chemical compound containing lithium as a main component, wherein the anode layer is stacked on a surface of the anode current collector over a range smaller than an area of the anode current collector and is isolated from and in no direct contact with the solid electrolyte; and a separator stacked on the anode layer, wherein the anode layer is sealed in by the separator and the anode current collector; characterized in that the anode composite structure (1d, 1e, 1f) comprises an electron-conducting layer on an inner side of the separator.
A mouse that expresses antibodies, wherein each heavy chain in the expressed antibodies comprises a human variable region and a mouse constant region, wherein the mouse also expresses: (i) a mouse ADAM6a protein or ortholog or homolog thereof that is functional in a male mouse; and (ii) a mouse ADAM6b protein or ortholog or homolog thereof that is functional in a male mouse, wherein the ADAM6a and ADAM6b proteins or orthologs or homologs thereof are expressed from an integrated nucleic acid sequence that is present within the endogenous mouse immunoglobulin heavy chain locus comprising at least one human V H, at least one human D H and at least one human J H segment, wherein the mouse lacks a functional endogenous Adam6 gene. (i) a mouse ADAM6a protein or ortholog or homolog thereof that is functional in a male mouse; and (ii) a mouse ADAM6b protein or ortholog or homolog thereof that is functional in a male mouse,
Implant, being three-dimensional and having at least one planar sheet element (2, 3) of a textile material with at least one free outer edge (4, 5), the implant having a central bar from which at least two mutually opposite wing bars extend laterally, the wing bars having a free edge, characterized in that a free outer edge (4, 5) of a sheet element (2, 3) has, in at least one portion, a closed border at which no fibre ends or the like lie exposed, and in that the free edge of the wing bars has, in at least one portion, a closed border, and in that, at the closed border of the free outer edge of a wing bar, a thread runs substantially along this closed border, or in that a thread does not run directly at the closed border of the outer free edge but only adjacent and substantially parallel thereto, and in that at least one sheet element (2, 3), in at least one portion, is turned back in the region of a free outer edge (4, 5).
An intervertebral disc implant for implanting between two opposing vertebral bodies (1, 4) comprising: a superior member with opposing first and second surfaces which first surface is adapted for attachment to a vertebral endplate of one vertebral body, and which second surface comprises a convex projection extending from the second surface; and an inferior member with opposing first and second surfaces, which first surface is adapted for attachment to a vertebral endplate of the opposing vertebral body; and wherein the second surface of the inferior member comprises a saddle shaped projection having a convex profile along a fist axis in the sagittal plane and a concave profile along a second axis in the transverse plane; and wherein the convex projection of the superior member and the saddle shaped projection of the inferior member are adapted to congruently fit together and facilitate rotation, pivoting and translation along the sagittal plane of the two opposing vertebral bodies (1, 4) when implanted there between, characterized in that the convex projection of the superior member comprises a convex-like surface both in the sagittal and in the transverse plane. a superior member with opposing first and second surfaces which first surface is adapted for attachment to a vertebral endplate of one vertebral body, and which second surface comprises a convex projection extending from the second surface; and an inferior member with opposing first and second surfaces, which first surface is adapted for attachment to a vertebral endplate of the opposing vertebral body; and wherein the second surface of the inferior member comprises a saddle shaped projection having a convex profile along a fist axis in the sagittal plane and a concave profile along a second axis in the transverse plane; and wherein the convex projection of the superior member and the saddle shaped projection of the inferior member are adapted to congruently fit together and facilitate rotation, pivoting and translation along the sagittal plane of the two opposing vertebral bodies (1, 4) when implanted there between, characterized in that the convex projection of the superior member comprises a convex-like surface both in the sagittal and in the transverse plane.
A continuous process for the production of a profile composed of at least one core made of a polyurethane foam, of a jacket made of at least one thermoplastic material and optionally of at least one foil between core and jacket, composed of the following steps: optionally introduction of a foil into a gripper-belt system which has the shape of the profile, introduction, into the gripper-belt system, of at least one liquid, foamable reactive system of the core comprising isocyanate a) and at least one relatively high-molecular-weight compound b) having groups reactive toward isocyanate groups, in a manner such that any foil present encloses the precursor material at least to some extent, shaping of the core in the gripper-belt system, optionally cooling of the core from step, introduction of the core from step or into an extruder with attached extrusion die for the production of hollow profiles, in order to sheath the core with a jacket made of at least one thermoplastic material and thus obtain the profile, optionally cooling of the profile from step, and optionally cutting of the profile from step or. optionally introduction of a foil into a gripper-belt system which has the shape of the profile, introduction, into the gripper-belt system, of at least one liquid, foamable reactive system of the core comprising isocyanate a) and at least one relatively high-molecular-weight compound b) having groups reactive toward isocyanate groups, in a manner such that any foil present encloses the precursor material at least to some extent, shaping of the core in the gripper-belt system, optionally cooling of the core from step, introduction of the core from step or into an extruder with attached extrusion die for the production of hollow profiles, in order to sheath the core with a jacket made of at least one thermoplastic material and thus obtain the profile, optionally cooling of the profile from step, and optionally cutting of the profile from step or.
A microelectromechanical systems, MEMS, device, comprising: two frame gyroscopes (1004, 1006, 1012, 1014, 1008, 1010, 1016, 1018) configured to sense a first component of angular velocity associated with the MEMS device around a first axis; four drive shuttles (1020, 1024, 1022, 1026) comprising respective guided masses and coupled (1052, 1056, 1054, 1058) to associated ones of the two frame gyroscopes, wherein the four drive shuttles are configured to move in anti-phase drive motion and are configured to transmit the anti-phase drive motion to the two frame gyroscopes, resulting in the two frame gyroscopes anti-phase drive motion, via a set of flexible couplings configured to minimize transmission of motion, which is orthogonal to the anti-phase drive motion, of the two frame gyroscopes to the four drive shuttles; and four proof masses (1028, 1032, 1030, 1034) coupled with respective ones of the four drive shuttles and configured to sense a second component of angular velocity associated with the MEMS device around a second axis that is orthogonal to the first axis. two frame gyroscopes (1004, 1006, 1012, 1014, 1008, 1010, 1016, 1018) configured to sense a first component of angular velocity associated with the MEMS device around a first axis; four drive shuttles (1020, 1024, 1022, 1026) comprising respective guided masses and coupled (1052, 1056, 1054, 1058) to associated ones of the two frame gyroscopes, wherein the four drive shuttles are configured to move in anti-phase drive motion and are configured to transmit the anti-phase drive motion to the two frame gyroscopes, resulting in the two frame gyroscopes anti-phase drive motion, via a set of flexible couplings configured to minimize transmission of motion, which is orthogonal to the anti-phase drive motion, of the two frame gyroscopes to the four drive shuttles; and four proof masses (1028, 1032, 1030, 1034) coupled with respective ones of the four drive shuttles and configured to sense a second component of angular velocity associated with the MEMS device around a second axis that is orthogonal to the first axis.
A device for spreading the sealing film of trays in the so-called tray sealers, in order to avoid the formation of folds in said film, which with the trays is inserted in a sealing and cutting station, between an opposing pair of bells (T1, T2) provided with a relative reciprocal approaching and distancing movement, wherein downstream of said station, means are provided to submit the off-cut of film which emerges to a transversal stretching which ensures correct spreading of the film between said bells and which comprises means for braking the film upstream of said station, characterised by comprising pincer means (P, P') with a jaw (1, 1') mounted on or at the face of the upper bell from which the film exists, turned downwards and vertically opposing a corresponding jaw (2, 2') mounted on the lower bell, all to ensure that in the reciprocal approaching and closure step of the two bells (T1, T2), before the film is gripped and blocked between them, longitudinal and lateral portions of the film (F, F') close to the bells are pincered between said opposing pairs of jaws (1, 2, 1', 2') which grip the film also due to the presence of counter springs (8, 8') and friction sliding blocks (101, 101') and which, due to their shape and position and their reciprocal mobility, subject the film to transversal spreading, before the bells (T1, T2) close on said film.