mhurhangee/ep-ind-claims huggingface dataset:
A free space optical communication system comprising: a constellation of a plurality of satellites, each of the plurality of satellites comprising: a plurality of inter-satellite optical telescopes (204a-204c) for optical communication with multiple neighboring satellites, and wherein each inter-satellite optical telescope is capable of adjusting its elevation angle to accommodate changes in the number of satellites in the constellation, and a plurality of up/down link optical telescopes (206a-206g) for optical communication with multiple ground sites, characterised in that each ground site having two or more ground optical telescopes, and wherein as the satellite constellation passes a given ground site, one or more of the up/down-link telescopes of a given satellite are configured to track at least two ground optical telescopes of the given ground site, and switch between ground optical telescopes so as to send data to a ground optical telescope with the clearest line of sight to the given satellite. a constellation of a plurality of satellites, each of the plurality of satellites comprising: a plurality of inter-satellite optical telescopes (204a-204c) for optical communication with multiple neighboring satellites, and wherein each inter-satellite optical telescope is capable of adjusting its elevation angle to accommodate changes in the number of satellites in the constellation, and a plurality of up/down link optical telescopes (206a-206g) for optical communication with multiple ground sites, a plurality of inter-satellite optical telescopes (204a-204c) for optical communication with multiple neighboring satellites, and wherein each inter-satellite optical telescope is capable of adjusting its elevation angle to accommodate changes in the number of satellites in the constellation, and a plurality of up/down link optical telescopes (206a-206g) for optical communication with multiple ground sites, characterised in that each ground site having two or more ground optical telescopes, and wherein as the satellite constellation passes a given ground site, one or more of the up/down-link telescopes of a given satellite are configured to track at least two ground optical telescopes of the given ground site, and switch between ground optical telescopes so as to send data to a ground optical telescope with the clearest line of sight to the given satellite.
Method for printing a plastic film sheet comprising - providing a plastic carrier film, - providing a plastic covering film, - printing the covering film, - applying an adhesion agent to the rear side of at least one of the films (8, 6); - joining the carrier film and the covering film on the rear sides thereof to form a composite film; - deep drawing the composite film to form an end product; - punching out the end product from the composite film, wherein a punch grid remains, characterized in that the thickness of the covering film is 10% to 20% of the thickness of the carrier film and a separation of the punch grid into portions of the carrier and covering film takes place so that a portion of the carrier film is obtained which is free from ink residues. - providing a plastic carrier film, - providing a plastic covering film, - printing the covering film, - applying an adhesion agent to the rear side of at least one of the films (8, 6); - joining the carrier film and the covering film on the rear sides thereof to form a composite film; - deep drawing the composite film to form an end product; - punching out the end product from the composite film, wherein a punch grid remains, characterized in that the thickness of the covering film is 10% to 20% of the thickness of the carrier film and a separation of the punch grid into portions of the carrier and covering film takes place so that a portion of the carrier film is obtained which is free from ink residues.
An agent for use in the prevention and treatment of chlamydia infection, which is for oral administration and contains dead cells or pulverized cells of Lactobacillus casei as an active ingredient.
Composition comprising from 99.6% to 99.99% by weight of at least one powder of at least one polyarylene ether ketone and 0.01% to 0.4% by weight of a hydrophilic flow agent, said hydrophilic flow agent being characterized by a gain in mass (amount of water absorbed), after 5 days of conditioning at a relative humidity of 95%, of greater than 0.5%, said gain in mass of the flow agent being determined by Karl Fischer measurement after desorption of the water by a 15-minute treatment at 170°C, in which the at least one polyarylene ether ketone is PEKK having a mass percentage of terephthalic units relative to the sum of the terephthalic and isophthalic units of between 55% and 85%.
An anti-vibration support structure for an onboard device, which is for a vehicle to support an onboard device placed under a floor of the vehicle, the anti-vibration support structure for an onboard device comprising: a first support suitable to be located under the floor of the vehicle, suitable to be fixed to the vehicle, and extending at least in part horizontally; a second support suitable to be located under the floor of the vehicle, suitable to be fixed to the vehicle, and suitable to be located above the first support while being apart from the first support; a target support suitable to be fixed to the onboard device, and being located at least in part between the first support and the second support so as not to be in contact with the first support and the second support; a first elastic member being located between the first support and the target support; and a second elastic member being located between the second support and the target support, wherein the target support is supported by being retained between the first support and the second support at least via the first elastic member and the second elastic member. a first support suitable to be located under the floor of the vehicle, suitable to be fixed to the vehicle, and extending at least in part horizontally; a second support suitable to be located under the floor of the vehicle, suitable to be fixed to the vehicle, and suitable to be located above the first support while being apart from the first support; a target support suitable to be fixed to the onboard device, and being located at least in part between the first support and the second support so as not to be in contact with the first support and the second support; a first elastic member being located between the first support and the target support; and a second elastic member being located between the second support and the target support, wherein the target support is supported by being retained between the first support and the second support at least via the first elastic member and the second elastic member.
A lighting assembly comprising: a substrate having a first surface; a plurality of electrode regions arranged on the first surface, each electrode region comprising one of a first external electrode and a second external electrode such that the first surface is provided with a plurality of first external electrodes and a plurality of second external electrodes each first external electrode and each second external electrode being insulated from each other; and a light emitting region arranged on the first surface and surrounding at least one of the plurality of electrode regions, the light emitting region comprising a first electrode layer, an electroluminescent layer, and a second electrode layer arranged sequentially in a direction away from the substrate, wherein the plurality of the electrode regions are arranged such that a pattern of the plurality of electrode regions is rotationally symmetric with respect to a center of the first surface, wherein the lighting assembly comprises a wire layer below the first electrode layer, the first electrode layer is electrically connected to the first external electrode via a wire of the wire layer, the second electrode layer comprises an extending portion extending to the wire layer and electrically connected to the second external electrode via another wire of the wire layer, wherein the lighting assembly further comprises an insulating material between the extending portion and the first electrode layer, wherein the plurality of the electrode regions are evenly distributed over the first surface. a substrate having a first surface; a plurality of electrode regions arranged on the first surface, each electrode region comprising one of a first external electrode and a second external electrode such that the first surface is provided with a plurality of first external electrodes and a plurality of second external electrodes each first external electrode and each second external electrode being insulated from each other; and a light emitting region arranged on the first surface and surrounding at least one of the plurality of electrode regions, the light emitting region comprising a first electrode layer, an electroluminescent layer, and a second electrode layer arranged sequentially in a direction away from the substrate, wherein the plurality of the electrode regions are arranged such that a pattern of the plurality of electrode regions is rotationally symmetric with respect to a center of the first surface, wherein the lighting assembly comprises a wire layer below the first electrode layer, the first electrode layer is electrically connected to the first external electrode via a wire of the wire layer, the second electrode layer comprises an extending portion extending to the wire layer and electrically connected to the second external electrode via another wire of the wire layer, wherein the lighting assembly further comprises an insulating material between the extending portion and the first electrode layer, wherein the plurality of the electrode regions are evenly distributed over the first surface.
Method for determining a particle loading of a particle filter with at least one loading variable, by performing the following steps: - detecting or providing a number of state variables (T, ṁ soot,in, V ̇, p in) of a supplied mass flow of gas, which comprise at least one mass flow of particles and a pressure difference indication, in particular a measured pressure difference indication (Δ p mess), for an actual pressure difference between an input side and an output side of the particle filter; - determining at least one modelled loading variable ( m soot,wall,mod, m soot,layer,mod) with the aid of a physical particle filter model depending on the one or more state variables (T, ṁ soot,in, V ̇, p in) of the mass flow of gas supplied; - modelling a correction variable (k soot,wall, k soot,layer, k η) for the at least one modelled loading variable( m soot,wall,mod, m soot,layer,mod) with the aid of a data-based error model depending on the state variables (T, ṁ soot,in, V ̇, pin) of the mass flow of gas supplied, the pressure difference indication (Δ p mess), wherein the error model corresponds to a temporal convolutional network or comprises such a network; - determining the at least one loading variable ( m soot,wall, m soot,layer) depending on the at least one modelled loading variable ( m soot,wall,mod, m soot,layer,mod) and the modelled correction variable (k soot,wall, k soot,layer, k η). - detecting or providing a number of state variables (T, ṁ soot,in, V ̇, p in) of a supplied mass flow of gas, which comprise at least one mass flow of particles and a pressure difference indication, in particular a measured pressure difference indication (Δ p mess), for an actual pressure difference between an input side and an output side of the particle filter; - determining at least one modelled loading variable ( m soot,wall,mod, m soot,layer,mod) with the aid of a physical particle filter model depending on the one or more state variables (T, ṁ soot,in, V ̇, p in) of the mass flow of gas supplied; - modelling a correction variable (k soot,wall, k soot,layer, k η) for the at least one modelled loading variable( m soot,wall,mod, m soot,layer,mod) with the aid of a data-based error model depending on the state variables (T, ṁ soot,in, V ̇, pin) of the mass flow of gas supplied, the pressure difference indication (Δ p mess), wherein the error model corresponds to a temporal convolutional network or comprises such a network; - determining the at least one loading variable ( m soot,wall, m soot,layer) depending on the at least one modelled loading variable ( m soot,wall,mod, m soot,layer,mod) and the modelled correction variable (k soot,wall, k soot,layer, k η).
A method, comprising: operating a telematics device coupled to an asset communications bus of an asset in a first mode in which the telematics device obtains asset data by sending request frames to the asset; enabling, by the telematics device, a non-interfering mode in which the telematics device does not send request frames to the asset; determining, by a telematics server, that the telematics device must disable the non-interfering mode; sending, by the telematics server (3009, to the telematics device, a command to cause the telematics device to disable the non-interfering mode; and disabling the non-interfering mode, by the telematics device in response to receiving the command from the telematics server; wherein determining, by the telematics server, that the telematics device must disable the non-interfering mode comprises: receiving, at the telematics server, a user input from an operator terminal, the user input comprising an indication that the telematics device must disable the non-interfering mode; or determining, at the telematics server, that a location of the telematics device is not in a zone defining a service center. operating a telematics device coupled to an asset communications bus of an asset in a first mode in which the telematics device obtains asset data by sending request frames to the asset; enabling, by the telematics device, a non-interfering mode in which the telematics device does not send request frames to the asset; determining, by a telematics server, that the telematics device must disable the non-interfering mode; sending, by the telematics server (3009, to the telematics device, a command to cause the telematics device to disable the non-interfering mode; and disabling the non-interfering mode, by the telematics device in response to receiving the command from the telematics server; wherein determining, by the telematics server, that the telematics device must disable the non-interfering mode comprises: receiving, at the telematics server, a user input from an operator terminal, the user input comprising an indication that the telematics device must disable the non-interfering mode; or determining, at the telematics server, that a location of the telematics device is not in a zone defining a service center. receiving, at the telematics server, a user input from an operator terminal, the user input comprising an indication that the telematics device must disable the non-interfering mode; or determining, at the telematics server, that a location of the telematics device is not in a zone defining a service center.
Fabric for a machine for producing a fibrous web, in particular a paper or board web, which is substantially formed from a film-like material, having a first surface facing the fibrous web and a second surface facing away from the fibrous web, wherein the fabric comprises a plurality of passage openings, which each extend along a central axis from the first surface to the second surface, wherein the central axes of at least some passage openings of the fabric enclose an angle with the first surface which differs from 90°, and wherein the fabric has two side edges (34, 36) delimiting the same, characterized in that the central axis of at least one passage opening in an edge region adjacent to one of the two side edges has a greater difference from a 90° angle to the first surface than the central axis of at least one other passage opening in a central region, which is arranged centrally between the two side edges (34, 36) of the fabric. wherein the central axes of at least some passage openings of the fabric enclose an angle with the first surface which differs from 90°, and wherein the fabric has two side edges (34, 36) delimiting the same, characterized in that the central axis of at least one passage opening in an edge region adjacent to one of the two side edges has a greater difference from a 90° angle to the first surface than the central axis of at least one other passage opening in a central region, which is arranged centrally between the two side edges (34, 36) of the fabric.
A scan unit, comprising: - a base, - a mirror for steering light, characterised in that it further comprises - a first set comprising at least three torsion springs extending along an axis (z, 119) between the base and the mirror in a first plane, and - a second set comprising at least three torsion springs extending along the axis (z, 119) between the base and the mirror in a second plane that is offset and parallel to the first plane. - a base, - a mirror for steering light, characterised in that it further comprises - a first set comprising at least three torsion springs extending along an axis (z, 119) between the base and the mirror in a first plane, and - a second set comprising at least three torsion springs extending along the axis (z, 119) between the base and the mirror in a second plane that is offset and parallel to the first plane.
A solenoid for a bleed valve arrangement, comprising: a solenoid body with an actuation fluid passage, a bleed valve passage, and drive fluid chamber; a main armature disposed within the solenoid body and movable between an open position and a closed position, the actuation fluid passage being in fluid communication with the bleed valve passage in the open position, the actuation fluid passage being fluidly isolated from the bleed valve passage in the closed position; a coil and a pilot armature disposed within the solenoid body and movable relative to the main armature, wherein upon application of a current to the coil, the coil applies an electromagnetic force to the pilot armature which is operably coupled to the main armature by the drive fluid chamber to move the main armature between the open position and the closed position by controlling issue of a drive fluid into and out of the drive fluid chamber; and further including a guide block disposed within the solenoid body, the main armature being slideably received within the guide block, wherein the guide block comprises an overboard drain separated from the drive fluid chamber by a gasket, characterised in that the gasket is a first gasket, and in that the solenoid further comprises a second gasket separating the overboard drain from the actuation fluid passage. a solenoid body with an actuation fluid passage, a bleed valve passage, and drive fluid chamber; a main armature disposed within the solenoid body and movable between an open position and a closed position, the actuation fluid passage being in fluid communication with the bleed valve passage in the open position, the actuation fluid passage being fluidly isolated from the bleed valve passage in the closed position; a coil and a pilot armature disposed within the solenoid body and movable relative to the main armature, wherein upon application of a current to the coil, the coil applies an electromagnetic force to the pilot armature which is operably coupled to the main armature by the drive fluid chamber to move the main armature between the open position and the closed position by controlling issue of a drive fluid into and out of the drive fluid chamber; and further including a guide block disposed within the solenoid body, the main armature being slideably received within the guide block, wherein the guide block comprises an overboard drain separated from the drive fluid chamber by a gasket,
A power management system comprising: a first battery having a first battery voltage; a second battery having a second battery voltage; a first capacitor bank attached to the first battery; a second capacitor bank attached to the second battery; and a power management element configured to route current from the first capacitor bank to the first battery when the first battery voltage is less than a first full battery voltage, and wherein when the current from the first capacitor bank is routed to the first battery and when the second battery voltage is less than a second full battery voltage the power management element is configured to route current from the second capacitor bank to the second battery. a first battery having a first battery voltage; a second battery having a second battery voltage; a first capacitor bank attached to the first battery; a second capacitor bank attached to the second battery; and a power management element configured to route current from the first capacitor bank to the first battery when the first battery voltage is less than a first full battery voltage, and wherein when the current from the first capacitor bank is routed to the first battery and when the second battery voltage is less than a second full battery voltage the power management element is configured to route current from the second capacitor bank to the second battery.
Jacking system for a leg of a jack-up platform, comprising: • at least three independent yokes (7a-7d), wherein each yoke is connected to a jack-up structure by at least one vertically arranged double acting actuator (8a-8d') and is equipped with a leg engaging mechanism in order to transfer a load from the jack-up platform to the leg; and • a rotation prevention provision configured to prevent rotation of the leg relative to the platform, characterized in that the rotation prevention provision comprises: o guidance shoes (15a-d), provided on the yokes (7a-d); and o vertical guidance pillars (14a-d), fixed to each other by rings (17, 18) surrounding the leg, and arranged for slidingly guiding said yokes (7a-d) via said guidance shoes (15a-d), wherein said guidance pillars (14a-d) and rings (17,18) are connected to the platform, such that they are supported in a vertical direction and a tangential direction, but free in a radial direction of the leg, so as to prevent rotation of the leg when it is engaged by a leg engagement mechanism and to allow the guidance pillars (14a-d) to be horizontally guided by the leg. • at least three independent yokes (7a-7d), wherein each yoke is connected to a jack-up structure by at least one vertically arranged double acting actuator (8a-8d') and is equipped with a leg engaging mechanism in order to transfer a load from the jack-up platform to the leg; and • a rotation prevention provision configured to prevent rotation of the leg relative to the platform, characterized in that the rotation prevention provision comprises: o guidance shoes (15a-d), provided on the yokes (7a-d); and o vertical guidance pillars (14a-d), fixed to each other by rings (17, 18) surrounding the leg, and arranged for slidingly guiding said yokes (7a-d) via said guidance shoes (15a-d), o guidance shoes (15a-d), provided on the yokes (7a-d); and o vertical guidance pillars (14a-d), fixed to each other by rings (17, 18) surrounding the leg, and arranged for slidingly guiding said yokes (7a-d) via said guidance shoes (15a-d),
A coccidian parasite selected from Toxoplasma, Neospora and Eimeria species wherein the expression of endogenous phosphatidylthreonine synthase enzyme is disrupted by genetic modification thereby eliminating the synthesis of a phosphatidylthreonine (PtdThr).