mhurhangee/ep-ind-claims huggingface dataset:
A low-profile radiating element comprising: a stripline feed layer; a High Order Floquet mode Scattering, HOFS, part layer; and a radome layer in direct contact with the HOFS part layer, wherein the HOFS part layer is disposed between the stripline feed layer and the radome layer, and the radome layer comprises a high dielectric constant, dk, eviromentally robust material and characterized in that the radome layer comprises a quartz layer and is integrated with the HOFS part layer. a stripline feed layer; a High Order Floquet mode Scattering, HOFS, part layer; and a radome layer in direct contact with the HOFS part layer, wherein the HOFS part layer is disposed between the stripline feed layer and the radome layer, and the radome layer comprises a high dielectric constant, dk, eviromentally robust material and characterized in that the radome layer comprises a quartz layer and is integrated with the HOFS part layer.
A method for manufacturing an air pulse generating element (100, 400, 600A, 600B, 600C, 650), comprising: providing a thin film layer (102, 402A, 402B, 502, 602), wherein the thin film layer (102, 402A, 402B, 502, 602) comprises a membrane (102m, 402m, 502m, 602m); forming a plurality of actuators on the thin film layer (102, 402A, 402B, 502, 602), wherein forming the actuators comprises forming a membrane actuator on the membrane (102m, 402m, 502m, 602m) and forming a plurality of valve actuators; forming a first chamber by bonding a first plate (20A, 20B, 20C) on a first surface of the thin film layer (102, 402A, 402B, 502, 602); patterning the thin film layer (102, 402A, 402B, 502, 602) to form a plurality of valves and have a plurality of openings, wherein the membrane (102m, 402m, 502m, 602m) and the valves are formed of the thin film layer (102, 402A, 402B, 502, 602), two of the openings are disposed on two sides of one of the valves, and two of the valve actuators are disposed on the two sides of the one of the valves; forming a second chamber by bonding a second plate on a second surface of the thin film layer (102, 402A, 402B, 502, 602), the second surface being opposite to the first surface; and forming a plurality of channels (126, 128) in the first plate (20A, 20B, 20C) and the second plate. providing a thin film layer (102, 402A, 402B, 502, 602), wherein the thin film layer (102, 402A, 402B, 502, 602) comprises a membrane (102m, 402m, 502m, 602m); forming a plurality of actuators on the thin film layer (102, 402A, 402B, 502, 602), wherein forming the actuators comprises forming a membrane actuator on the membrane (102m, 402m, 502m, 602m) and forming a plurality of valve actuators; forming a first chamber by bonding a first plate (20A, 20B, 20C) on a first surface of the thin film layer (102, 402A, 402B, 502, 602); patterning the thin film layer (102, 402A, 402B, 502, 602) to form a plurality of valves and have a plurality of openings, wherein the membrane (102m, 402m, 502m, 602m) and the valves are formed of the thin film layer (102, 402A, 402B, 502, 602), two of the openings are disposed on two sides of one of the valves, and two of the valve actuators are disposed on the two sides of the one of the valves; forming a second chamber by bonding a second plate on a second surface of the thin film layer (102, 402A, 402B, 502, 602), the second surface being opposite to the first surface; and forming a plurality of channels (126, 128) in the first plate (20A, 20B, 20C) and the second plate.
A battery pack comprising: a battery including a plurality of battery cells; a first battery pack terminal and a second battery pack terminal connected to the battery and configured to be connected to a charger for charging the battery via the first battery pack terminal and the second battery pack terminal; a cut-off switch arranged on a path through which charge and discharge currents of the battery flow; and a battery manager configured to monitor a state of the battery, to turn off the cut-off switch when there is a risk of the battery being damaged, and to determine whether the type of the charger is of the same type as that of a dedicated charger especially manufactured to charge the battery, wherein, when the type of the charger is different from that of the dedicated charger, the battery manager is configured to initially permit charging of the battery and to turn off the cut-off switch when a pack voltage that is a voltage between the first battery pack terminal and the second battery pack terminal reaches a first reference voltage. a battery including a plurality of battery cells; a first battery pack terminal and a second battery pack terminal connected to the battery and configured to be connected to a charger for charging the battery via the first battery pack terminal and the second battery pack terminal; a cut-off switch arranged on a path through which charge and discharge currents of the battery flow; and a battery manager configured to monitor a state of the battery, to turn off the cut-off switch when there is a risk of the battery being damaged, and to determine whether the type of the charger is of the same type as that of a dedicated charger especially manufactured to charge the battery, wherein, when the type of the charger is different from that of the dedicated charger, the battery manager is configured to initially permit charging of the battery and to turn off the cut-off switch when a pack voltage that is a voltage between the first battery pack terminal and the second battery pack terminal reaches a first reference voltage.
Air-sprung vehicle axle, having an axle which is guided on trailing arms and having a plunger which is screwed to the rear part of the respective trailing arm and which, together with a rolling lobe, is part of an air spring, the plunger casing of said plunger serving as a bearing face for the rolling lobe during the compression and the underside of said plunger, for support against the upper side of the trailing arm, being provided with a bottom face arranged around a central fastening opening, wherein at least one structure of the plunger, which structure is configured as a protrusion or a group of protrusions arranged in a manner distributed around the central fastening opening, projects downwards relative to the plane of the bottom face, characterized in that, in order to prevent rotation of the plunger, only regions of the structure bear against the upper side of the trailing arm, thereby being compressed axially and crushed, and the remaining regions of the structure are not deformed, which results in a form fit at the stepped transitions between deformed and non-deformed regions.
A composite filament comprising: a core particle comprising a styrene/acrylate polymer resin and optionally a first metal ion acrylate monomer; and a shell comprising a styrene/acrylate ionomer resin, wherein the styrene/acrylate ionomer resin comprises a second metal ion acrylate monomer; wherein the total amount of metal presented in the composite filament ranges in a concentration of from about 0.5 ppm to about 50,000 ppm; wherein the second metal ion acrylate monomer of the shell comprises metal ions with antimicrobial properties; and further wherein the composite filament has a diameter of from about 0.5 mm to about 5 mm. a core particle comprising a styrene/acrylate polymer resin and optionally a first metal ion acrylate monomer; and a shell comprising a styrene/acrylate ionomer resin, wherein the styrene/acrylate ionomer resin comprises a second metal ion acrylate monomer; wherein the total amount of metal presented in the composite filament ranges in a concentration of from about 0.5 ppm to about 50,000 ppm; wherein the second metal ion acrylate monomer of the shell comprises metal ions with antimicrobial properties; and further wherein the composite filament has a diameter of from about 0.5 mm to about 5 mm.
An aircraft interior panel configuration between adjacent panels, comprising: a first interior panel of the adjacent panels having a first edge; a first cavity formed in the first edge; a first soft seal element disposed in the first cavity; and a transition insert disposed adjacent to the first edge such that the first edge overlaps the transition insert wherein the transition insert is adapted to be fixedly mounted in an aircraft interior along an arc, the transition insert extending between the adjacent panels wherein the first soft seal element is biased to press the first edge of the first panel against the transition insert, wherein the transition element is a bulkhead transition insert, wherein the edges are fashioned as hollow structures, defining the cavities that house the soft seal elements, wherein the edges and soft seal elements are contemplated to be biased against the bulkhead transition insert in the direction vertical to the plane defined by the internal panel such that the first edge is biased to remain in constant contact with a surface of the transition element regardless of a width of a gap between the adjacent panels. a first interior panel of the adjacent panels having a first edge; a first cavity formed in the first edge; a first soft seal element disposed in the first cavity; and a transition insert disposed adjacent to the first edge such that the first edge overlaps the transition insert wherein the transition insert is adapted to be fixedly mounted in an aircraft interior along an arc, the transition insert extending between the adjacent panels wherein the first soft seal element is biased to press the first edge of the first panel against the transition insert, wherein the transition element is a bulkhead transition insert, wherein the edges are fashioned as hollow structures, defining the cavities that house the soft seal elements, wherein the edges and soft seal elements are contemplated to be biased against the bulkhead transition insert in the direction vertical to the plane defined by the internal panel such that the first edge is biased to remain in constant contact with a surface of the transition element regardless of a width of a gap between the adjacent panels.
A rotor vertical axis wind turbine for electrical energy generation comprising: - a bearing structure comprising a rotor positioned in bearings, - a brake, - a voltage generator, - a charge controller and - a battery, wherein - the rotor consists of a vertically arranged shaft provided with at least three blades arranged in at least one plane perpendicular to the shaft, wherein the blades of one plane mutually enclose an angle of 120° and where the blades arranged in the plane perpendicular to the shaft form a layer, wherein the blades of each other layer are shifted by an angle of 6 to 10° from the blades of the previous layer, so that the blade system forms a triple spiral, each blade consists of a hollow U-shaped profile that is closed at the end connected to the shaft and forms a resistance portion of the blade, characterized in that, each blade is provided at the outer end with a lift ending formed by a hollow aerodynamically shaped profile ended with a narrowing in the form of a nozzle, wherein said hollow aerodynamically shaped profile with a nozzle is a longitudinal half of a rotationally symmetric profile with a nozzle. - a bearing structure comprising a rotor positioned in bearings, - a brake, - a voltage generator, - a charge controller and - a battery, wherein - the rotor consists of a vertically arranged shaft provided with at least three blades arranged in at least one plane perpendicular to the shaft, wherein the blades of one plane mutually enclose an angle of 120° and where the blades arranged in the plane perpendicular to the shaft form a layer, wherein the blades of each other layer are shifted by an angle of 6 to 10° from the blades of the previous layer, so that the blade system forms a triple spiral,
An over the air measurement module, comprising: - an antenna, adapted to receive a first measuring signal from a device under test and/or adapted to transmit a second measuring signal to the device under test, - a analog signal processor, directly connected to said antenna, adapted to reduce a frequency of the received first measuring signal, resulting in a frequency reduced first measuring signal, and/or adapted to increase a frequency of a frequency reduced second measuring signal, resulting in the second measuring signal, and - a connector, connected to said analog signal processor, adapted to output the first frequency reduced measuring signal, and/or adapted to receive the second frequency reduced measuring signal, the over the air measurement module is characterised in that the antenna is a planar antenna, and wherein a main radiation direction of the antenna is in the plane of the planar antenna, and wherein at least 50% of the surfaces (21, 22, 25, 26) of the over the air measurement module facing the main radiation direction of the antenna are angled away from a normal of the main radiation direction of the antenna by at least 30°. - an antenna, adapted to receive a first measuring signal from a device under test and/or adapted to transmit a second measuring signal to the device under test, - a analog signal processor, directly connected to said antenna, adapted to reduce a frequency of the received first measuring signal, resulting in a frequency reduced first measuring signal, and/or adapted to increase a frequency of a frequency reduced second measuring signal, resulting in the second measuring signal, and - a connector, connected to said analog signal processor, adapted to output the first frequency reduced measuring signal, and/or adapted to receive the second frequency reduced measuring signal, the over the air measurement module is characterised in that the antenna is a planar antenna, and wherein a main radiation direction of the antenna is in the plane of the planar antenna, and wherein at least 50% of the surfaces (21, 22, 25, 26) of the over the air measurement module facing the main radiation direction of the antenna are angled away from a normal of the main radiation direction of the antenna by at least 30°.
A method comprising: determining a signal bandwidth supported by a codec of a device, where the signal bandwidth is negotiated between the device and at least one other device; producing by the codec a decoded output signal from an encoded input signal received by the device; determining if the decoded output signal produced by the codec has a narrower bandwidth than the signal bandwidth determined for the codec (302, 304, 402, 404); and modifying an output of a device in response to determining (306-310, 406-410) that the decoded output signal has a narrower bandwidth than the signal bandwidth determined for the codec, wherein the modifying includes producing a narrowed decoded output signal by operating on the output signal by at least one of: filtering lower frequency components of the output signal; filtering higher frequency components of the output signal; modifying a filter bandwidth; modifying a gain of the output signal, for example reducing the gain; modifying compression of the output; modifying a mono/stereo characteristic of the output; and reducing a dynamic range of the output signal, and the method including annunciating the narrowed output signal upon at least one loudspeaker of the device. determining a signal bandwidth supported by a codec of a device, where the signal bandwidth is negotiated between the device and at least one other device; producing by the codec a decoded output signal from an encoded input signal received by the device; determining if the decoded output signal produced by the codec has a narrower bandwidth than the signal bandwidth determined for the codec (302, 304, 402, 404); and modifying an output of a device in response to determining (306-310, 406-410) that the decoded output signal has a narrower bandwidth than the signal bandwidth determined for the codec, wherein the modifying includes producing a narrowed decoded output signal by operating on the output signal by at least one of: filtering lower frequency components of the output signal; filtering higher frequency components of the output signal; modifying a filter bandwidth; modifying a gain of the output signal, for example reducing the gain; modifying compression of the output; modifying a mono/stereo characteristic of the output; and reducing a dynamic range of the output signal, and the method including annunciating the narrowed output signal upon at least one loudspeaker of the device. filtering lower frequency components of the output signal; filtering higher frequency components of the output signal; modifying a filter bandwidth; modifying a gain of the output signal, for example reducing the gain; modifying compression of the output; modifying a mono/stereo characteristic of the output; and reducing a dynamic range of the output signal, and the method including annunciating the narrowed output signal upon at least one loudspeaker of the device.
A transfer tray (80', 90) for use in bonding of a plurality of orthodontic appliances (16', 16"), each having a base for bonding to a tooth surface and a body extending outwardly from the base, the tray (80', 90) comprising: a plurality of receptacles for the plurality of orthodontic appliances (16', 16"), each of the plurality of receptacles having a configuration matching a portion of the appliance body to releasably retain the appliance (16', 16"); the plurality of orthodontic appliances (16', 16") releasably retained in the plurality of receptacles; and a tray body (56'. 91) extending continuously across the plurality of receptacles and having a gingival edge, wherein the gingival edge intersects each of the plurality of receptacles such that a first portion of each appliance body extends below the gingival edge and is not enclosed by any portion of the tray body (56', 91) for each appliance (16', 16") releasably retained in each receptacle, and wherein each receptacle and the tray body (56',91) cooperate to cover all exterior surfaces of each appliance body opposite the base and located in an occlusal direction from the gingival edge for each appliance (16', 16") releasably retained in each receptacle, wherein prior to placement of the appliances (16', 16") on the teeth while the appliance (16', 16") are retained in the receptacles of the tray body (56', 91), positions of the receptacles in the tray body (56', 91) correspond with positions of teeth to receive the appliances (16', 16") retained in the receptacles, wherein the tray body (56', 91) comprises rapid prototyping material. a plurality of receptacles for the plurality of orthodontic appliances (16', 16"), each of the plurality of receptacles having a configuration matching a portion of the appliance body to releasably retain the appliance (16', 16"); the plurality of orthodontic appliances (16', 16") releasably retained in the plurality of receptacles; and a tray body (56'. 91) extending continuously across the plurality of receptacles and having a gingival edge, wherein the gingival edge intersects each of the plurality of receptacles such that a first portion of each appliance body extends below the gingival edge and is not enclosed by any portion of the tray body (56', 91) for each appliance (16', 16") releasably retained in each receptacle, and wherein each receptacle and the tray body (56',91) cooperate to cover all exterior surfaces of each appliance body opposite the base and located in an occlusal direction from the gingival edge for each appliance (16', 16") releasably retained in each receptacle, wherein prior to placement of the appliances (16', 16") on the teeth while the appliance (16', 16") are retained in the receptacles of the tray body (56', 91), positions of the receptacles in the tray body (56', 91) correspond with positions of teeth to receive the appliances (16', 16") retained in the receptacles, wherein the tray body (56', 91) comprises rapid prototyping material.
Electromagnetic actuator in which a mobile member (8; 108) is designed to slide inside a ferromagnetic frame along a displacement axis X-X' between two end positions when exposed to a magnetic flux circulating in said frame, wherein the said frame forms a single loop magnetic circuit interrupted by two air gaps (14,16) each arranged on the said axis of displacement of the mobile member, so that the magnetic flux circulates in a single simple loop in the frame and two magnetic fields of opposite direction (B1, B2) are generated in the air gaps, with each magnetic field extending transversely to the said pre-determined axis of displacement, and wherein the mobile member comprises a permanent magnet (24; 124), polarized in a pre-determined direction, characterized by the fact that said permanent magnet has an axial dimension, along the axis of displacement, approximately equal to the distance between the center of each air gap, said axial dimension being such that in each end position, one end of the magnet extends into one of the air gaps and the opposite end of the magnet extends into the other air gap.
A method of pose detection for a device, comprising: displaying, to a user, a first image indicative of a pose request for a user pose expected by the device; detecting (904, 1002) an initial presence of a user pose after displaying the first image; indicating (906, 908, 1004) to the user progress toward achieving a predetermined state of detection of the expected user pose while continuing to detect the user pose, wherein indicating progress to the user comprises overlaying a progressive feedback image as a second image upon the first image; having indicated progress to the user, determining (906, 1006) that the predetermined state of detection has been achieved; displaying, together with the first image or after determining that the predetermined state of detection has been achieved, prompts of choices for interaction with the device; upon determining that the predetermined state of detection has been achieved, providing to the user an indication of a user motion by displaying behind the progressive feedback image new pose requests that indicate to the user the expected direction of user motion to select a corresponding prompt choice; and responding (914, 1008) to the user motion based on determining that the user completes the user motion to select a prompt choice. displaying, to a user, a first image indicative of a pose request for a user pose expected by the device; detecting (904, 1002) an initial presence of a user pose after displaying the first image; indicating (906, 908, 1004) to the user progress toward achieving a predetermined state of detection of the expected user pose while continuing to detect the user pose, wherein indicating progress to the user comprises overlaying a progressive feedback image as a second image upon the first image; having indicated progress to the user, determining (906, 1006) that the predetermined state of detection has been achieved; displaying, together with the first image or after determining that the predetermined state of detection has been achieved, prompts of choices for interaction with the device; upon determining that the predetermined state of detection has been achieved, providing to the user an indication of a user motion by displaying behind the progressive feedback image new pose requests that indicate to the user the expected direction of user motion to select a corresponding prompt choice; and responding (914, 1008) to the user motion based on determining that the user completes the user motion to select a prompt choice.