mhurhangee/ep-ind-claims huggingface dataset:
A magnetic bearing system for controlling magnetic coupling between a vehicle and a guideway, the magnetic bearing system comprising: at least one engine, which comprises at least two metal poles (3, 4), at least one permanent magnet and at least two coils (2, 6) surrounding the at least two metal poles (3, 4), respectively, wherein the at least one engine is configured to be magnetically coupled to the guideway through at least one air gap; characterized in that the at least one engine comprises a plurality of engines successively arranged in a direction of travel, wherein the plurality of engines are arranged parallel to each other in the direction of travel and each of the plurality of engines comprises at least two metal poles (3, 4), at least one permanent magnet and at least two coils surrounding the at least two metal poles, respectively (2, 6); wherein the at least two metal poles (3, 4) of each of the plurality of engines are aligned perpendicular the direction of travel; wherein the at least two metal poles (3, 4) of a first engine are laterally offset with respect to the at least two metal poles (3, 4) of a second engine adjacent the first engine. at least one engine, which comprises at least two metal poles (3, 4), at least one permanent magnet and at least two coils (2, 6) surrounding the at least two metal poles (3, 4), respectively, wherein the at least one engine is configured to be magnetically coupled to the guideway through at least one air gap; characterized in that the at least one engine comprises a plurality of engines successively arranged in a direction of travel, wherein the plurality of engines are arranged parallel to each other in the direction of travel and each of the plurality of engines comprises at least two metal poles (3, 4), at least one permanent magnet and at least two coils surrounding the at least two metal poles, respectively (2, 6); the at least two metal poles (3, 4) of each of the plurality of engines are aligned perpendicular the direction of travel; wherein the at least two metal poles (3, 4) of a first engine are laterally offset with respect to the at least two metal poles (3, 4) of a second engine adjacent the first engine.
A voltage regulation circuit comprising: a direct current to direct current, DC-DC, converter configured to control a first current (I 1) provided from a source (V BAT) to a load via a first output; a linear regulator configured to control a second current (I 2) provided from the source to the load via a second output; a single control loop (116, 114) configured to receive an output voltage (V OUT) across the load and a first reference voltage (V REF), being characterised by the single control loop being further configured to generate a single error signal (V ERROR) and to control the DC-DC converter and the linear regulator using the single error signal such that when the single error signal is outside of a predetermined range the DC-DC converter provides the first current to the load and the linear regulator provides the second current to the load simultaneously; wherein the single control loop comprises an integrator configured to receive the output voltage and the first reference voltage, the integrator further configured to integrate an error between the output voltage and the first reference voltage to generate the single error signal; and wherein the linear regulator comprises a differential amplifier having a negative input configured to receive the single error signal from the integrator and a positive input configured to receive a second reference voltage (V REF_LDO). a direct current to direct current, DC-DC, converter configured to control a first current (I 1) provided from a source (V BAT) to a load via a first output; a linear regulator configured to control a second current (I 2) provided from the source to the load via a second output; a single control loop (116, 114) configured to receive an output voltage (V OUT) across the load and a first reference voltage (V REF), being characterised by the single control loop being further configured to generate a single error signal (V ERROR) and to control the DC-DC converter and the linear regulator using the single error signal such that when the single error signal is outside of a predetermined range the DC-DC converter provides the first current to the load and the linear regulator provides the second current to the load simultaneously; wherein the single control loop comprises an integrator configured to receive the output voltage and the first reference voltage, the integrator further configured to integrate an error between the output voltage and the first reference voltage to generate the single error signal; and wherein the linear regulator comprises a differential amplifier having a negative input configured to receive the single error signal from the integrator and a positive input configured to receive a second reference voltage (V REF_LDO).
A method of providing a user interface, UI, the method comprising: displaying an onscreen keyboard on a screen; displaying a plurality of applications (110, 120) on the screen; selecting (S835, S846) one of the plurality of applications (110, 120) as an application for entering text using the onscreen keyboard; and displaying an indicator between the selected application and the onscreen keyboard, the indicator indicating that the application is connected with the onscreen keyboard for entering text on the selected application using the onscreen keyboard; wherein, in response to receiving a touch input on the indicator, the method further comprises displaying a disconnection button for disconnecting the selected application from the onscreen keyboard, and in response to receiving a touch input on the disconnection button, disconnecting the selected application from the onscreen keyboard on the screen. displaying an onscreen keyboard on a screen; displaying a plurality of applications (110, 120) on the screen; selecting (S835, S846) one of the plurality of applications (110, 120) as an application for entering text using the onscreen keyboard; and displaying an indicator between the selected application and the onscreen keyboard, the indicator indicating that the application is connected with the onscreen keyboard for entering text on the selected application using the onscreen keyboard; wherein, in response to receiving a touch input on the indicator, the method further comprises displaying a disconnection button for disconnecting the selected application from the onscreen keyboard, and in response to receiving a touch input on the disconnection button, disconnecting the selected application from the onscreen keyboard on the screen.
A door handle apparatus, comprising: - a frame member configured to be assembled on a door outer panel that forms an outer surface of a vehicle door; - a handle body configured to be mounted on the frame member via a first arm portion and a second arm portion, the handle body being configured to be rotatable relative to the frame member at the first arm portion, - a retainer mounted on the frame member and moveable between an assembly ready position and an assembly completion position, wherein, when the retainer is in the assembly ready position, the handle body is moveable within the frame member; when the retainer is in the assembly completion position, the retainer maintains the second arm portion of the handle body in cooperation with a door opening member, mounted on the frame member, wherein the door handle apparatus comprises a displacement member configured to displace the retainer from the assembly ready position to the assembly completion position, characterized in that the displacement member is mounted on the frame member and is configured to be actuated by a user between a first position and a second position. - a frame member configured to be assembled on a door outer panel that forms an outer surface of a vehicle door; - a handle body configured to be mounted on the frame member via a first arm portion and a second arm portion, the handle body being configured to be rotatable relative to the frame member at the first arm portion, - a retainer mounted on the frame member and moveable between an assembly ready position and an assembly completion position, wherein, when the retainer is in the assembly ready position, the handle body is moveable within the frame member; when the retainer is in the assembly completion position, the retainer maintains the second arm portion of the handle body in cooperation with a door opening member, mounted on the frame member, wherein the door handle apparatus comprises a displacement member configured to displace the retainer from the assembly ready position to the assembly completion position, characterized in that the displacement member is mounted on the frame member and is configured to be actuated by a user between a first position and a second position.
Aqueous composition for coating grain orientated steel comprising - aluminium cations, - manganese cations, - dihydrogen phosphate, hydrogen phosphate and/or phosphate anions, - colloidal silicon dioxide and - optionally iron cations, wherein the aluminium cations present in the composition, calculated as Al 2 O 3, manganese cations, calculated as MnO, dihydrogen phosphate, hydrogen phosphate and/or phosphate anions, calculated as P 2 O 5, colloidal silicon dioxide, calculated as SiO 2, and optionally iron cations, calculated as FeO, give the chemical formula (Al 2 O 3) 2 (MnO) 1,8-2,4 (FeO) 0-0,2 (P 2 O 5) 5-7 (SiO 2) ≥30. - aluminium cations, - manganese cations, - dihydrogen phosphate, hydrogen phosphate and/or phosphate anions, - colloidal silicon dioxide and - optionally iron cations, wherein
Use in a rotolining process to prepare internally coated hollow articles comprising: a) an outer skin layer prepared from an iron containing alloy; b) an inner skin layer composition comprising a polyethylene-based resin; c) optional additional layers not positioned between layers a) and b), prepared from polyamide, ethylene vinyl alcohol (EVOH), polypropylene or polyethylene, and positioned on the side of layer b) opposite to layer a), of a composition for skin layer b) consisting of from 80 to 98 wt% based on the total weight of said inner skin layer b) of a polyethylene-based resin prepared with a bistetrahydroindenyl or a bisindenyl catalyst component, and of from 2 to 20 wt % of a combination of functionalised polyethylene and ionomer. a) an outer skin layer prepared from an iron containing alloy; b) an inner skin layer composition comprising a polyethylene-based resin; c) optional additional layers not positioned between layers a) and b), prepared from polyamide, ethylene vinyl alcohol (EVOH), polypropylene or polyethylene, and positioned on the side of layer b) opposite to layer a),
A cover assembly comprising: a shield provided with an opening; a sliding cover slidably arranged on the shield; a lid positioned between the shield and the sliding cover, and rotatably connected to the shield, so as to open or close the opening under the drive of the sliding cover; and wherein the lid comprises: a lid body characterized in that the lid further comprises a first rotating shaft arranged on the lid body and rotatably connected to the shield; a raised portion arranged on a side of the lid body facing the sliding cover; wherein the raised portion can be pushed by the sliding cover when the sliding cover slides in one direction, so as to drive the lid body to open the opening, and the lid body can be pushed by the sliding cover when the sliding cover slides in the opposite direction, so as to drive the lid body to close the opening. a shield provided with an opening; a sliding cover slidably arranged on the shield; a lid positioned between the shield and the sliding cover, and rotatably connected to the shield, so as to open or close the opening under the drive of the sliding cover; and wherein the lid comprises: a lid body characterized in that the lid further comprises a first rotating shaft arranged on the lid body and rotatably connected to the shield; a raised portion arranged on a side of the lid body facing the sliding cover; wherein the raised portion can be pushed by the sliding cover when the sliding cover slides in one direction, so as to drive the lid body to open the opening, and the lid body can be pushed by the sliding cover when the sliding cover slides in the opposite direction, so as to drive the lid body to close the opening. a lid body characterized in that the lid further comprises a first rotating shaft arranged on the lid body and rotatably connected to the shield; a raised portion arranged on a side of the lid body facing the sliding cover; wherein the raised portion can be pushed by the sliding cover when the sliding cover slides in one direction, so as to drive the lid body to open the opening, and the lid body can be pushed by the sliding cover when the sliding cover slides in the opposite direction, so as to drive the lid body to close the opening.
A method for acquiring a multicast service by a user equipment, UE, comprising: receiving a user service description, USD message, the USD message indicating a frequency of a multicast service of interest to the UE, wherein the UE currently receives a first eMBMS service in idle mode, and the multicast service of interest is a second eMBMS service; acquiring the multicast service when the frequency indicated in the USD message is a current frequency; when the frequency indicated in the USD message is not the current frequency: determining that the multicast service is not available; and rejecting the second eMBMS service. receiving a user service description, USD message, the USD message indicating a frequency of a multicast service of interest to the UE, wherein the UE currently receives a first eMBMS service in idle mode, and the multicast service of interest is a second eMBMS service; acquiring the multicast service when the frequency indicated in the USD message is a current frequency; when the frequency indicated in the USD message is not the current frequency: determining that the multicast service is not available; and rejecting the second eMBMS service. determining that the multicast service is not available; and rejecting the second eMBMS service.
A method of encoding a point cloud into a bitstream of encoded point cloud data representing a physical object, each point of the point cloud being associated with spherical coordinates representing an azimuthal angle responsive to a capture angle of a sensor of a spinning sensor head that captured the point and a radius responsive of a distance of the point from a referential, the method being characterized by - obtaining a scaled elementary azimuthal step (S( φ step, r dec)) associated with a point of the point cloud, said scaled elementary azimuthal step (S(( φ s tep, r dec)) being equal to a first data greater than an elementary azimuthal step ( φ step) when a second data is strictly lower than a threshold, and the scaled elementary azimuthal step (S( φ step, r dec)) being equal to the elementary azimuthal step ( φ step) otherwise, said elementary azimuthal step ( φ step) being derived from frequencies and rotation speed at which a spinning sensor head captured the point cloud, and said second data depending on a decoded radius (r dec) of the point obtained by encoding and decoding a radius associated with the point; - encoding, in the bitstream, a number (m s) of scaled elementary azimuthal steps obtained from an azimuthal angle of the point, a prediction of the azimuthal angle and the scaled elementary azimuthal step; and - encoding, in the bitstream, an residual azimuthal angle of the point between the azimuthal angle of the point and a predicted azimuthal angle derived from the number (m s) of scaled elementary azimuthal steps and the scaled elementary azimuthal step (S( φ step, r dec)). - obtaining a scaled elementary azimuthal step (S( φ step, r dec)) associated with a point of the point cloud, said scaled elementary azimuthal step (S(( φ s tep, r dec)) being equal to a first data greater than an elementary azimuthal step ( φ step) when a second data is strictly lower than a threshold, and the scaled elementary azimuthal step (S( φ step, r dec)) being equal to the elementary azimuthal step ( φ step) otherwise, said elementary azimuthal step ( φ step) being derived from frequencies and rotation speed at which a spinning sensor head captured the point cloud, and said second data depending on a decoded radius (r dec) of the point obtained by encoding and decoding a radius associated with the point; - encoding, in the bitstream, a number (m s) of scaled elementary azimuthal steps obtained from an azimuthal angle of the point, a prediction of the azimuthal angle and the scaled elementary azimuthal step; and - encoding, in the bitstream, an residual azimuthal angle of the point between the azimuthal angle of the point and a predicted azimuthal angle derived from the number (m s) of scaled elementary azimuthal steps and the scaled elementary azimuthal step (S( φ step, r dec)).
An airbag for protecting the head of a user in case of an accident, comprising an inflatable inner bag (21, 40, 50, 60) being positioned inside an outer bag such that the inner bag is surrounded by the outer bag, wherein the structure of the outer bag defines the shape of the airbag when the inner bag is inflated, and wherein said inner bag (21, 40, 50, 60) comprises a plurality of elongate first chambers (28, 29, 210, 211, 41, 42, 43, 44, 45, 46, 47, 48, 65, 66, 69, 610, 611, 612, 613,614), each of which elongate first chambers forms a head protective part when inflated, wherein inflation of the inner bag leads to expansion of the outer bag, and characterized in that said inner bag (21, 40, 50, 60) further comprises a second chamber (49, 68) interconnecting said first chambers (28, 29, 210, 211, 41, 42, 43, 44, 45, 46, 47, 48, 65, 66, 69, 610, 611, 612, 613, 614), wherein said second chamber is configured to distribute fluid between said first chambers (28, 29, 210, 211, 41, 42, 43, 44, 45, 46, 47, 48, 65, 66, 69, 610, 611, 612, 613, 614) and the second chamber, wherein said second chamber (49, 68) forms a neck protective part when inflated.
A control unit (134, 136) for a cylinder (130, 132) of a swing axle of a mobile working machine (10, 30), the control unit (134, 136) comprising the following: - a single inlet port for a fluid line for a pressure medium, - an outlet port for the cylinder (130, 132), and - a valve unit (146, 148) comprising a control piston, wherein a flow through the control piston is possible through at least one passage opening, and wherein the pressure medium flows through the control piston in the event of a flow between the inlet port and the outlet port, wherein the valve unit (146, 148) further comprises a check valve, wherein the control piston counteracts, in a loaded state, a closing direction of the check valve, wherein the control piston is biased by a biasing element (174, 218), which acts on the control piston in the same direction as the closing direction of the check valve, wherein in a first operating mode the check valve is open, wherein in a second operating mode the check valve is closed, and wherein the outlet port is a single outlet port. - a single inlet port for a fluid line for a pressure medium, - an outlet port for the cylinder (130, 132), and - a valve unit (146, 148) comprising a control piston,
A binaural hearing aid system comprising: - a first hearing aid, a second hearing aid and an auxiliary device; - a wireless inductive link adapted to transmit data packets between the first and second hearing aids; - a wireless far-field link (104, 105) adapted to transmit data packets from the auxiliary device and to the first and second hearing aid respectively; wherein both the first and the second hearing aid comprises: - a relay processor adapted to relay data packets received from the auxiliary device, using the wireless far-field link, to the other hearing aid of the binaural hearing aid system, using said wireless inductive link; - a quality estimator adapted to estimate the quality of the data packets received from the auxiliary device using the wireless far-field link and adapted to estimate the quality of the data packets received from the other hearing aid of the binaural hearing aid system using the wireless inductive link, wherein the quality estimation is carried out as a data packet validity check selected from a group comprising cyclic redundancy check, parity bit check and hash sum check; and - a selector adapted to select either a data packet received from the contra-lateral hearing aid of the binaural hearing aid system or a data packet received from the auxiliary device for further processing by the hearing aid, wherein the selection depends on the data packet validity check. - a first hearing aid, a second hearing aid and an auxiliary device; - a wireless inductive link adapted to transmit data packets between the first and second hearing aids; - a wireless far-field link (104, 105) adapted to transmit data packets from the auxiliary device and to the first and second hearing aid respectively; - a relay processor adapted to relay data packets received from the auxiliary device, using the wireless far-field link, to the other hearing aid of the binaural hearing aid system, using said wireless inductive link; - a quality estimator adapted to estimate the quality of the data packets received from the auxiliary device using the wireless far-field link and adapted to estimate the quality of the data packets received from the other hearing aid of the binaural hearing aid system using the wireless inductive link, wherein the quality estimation is carried out as a data packet validity check selected from a group comprising cyclic redundancy check, parity bit check and hash sum check; and - a selector adapted to select either a data packet received from the contra-lateral hearing aid of the binaural hearing aid system or a data packet received from the auxiliary device for further processing by the hearing aid, wherein the selection depends on the data packet validity check.