mhurhangee/ep-ind-claims huggingface dataset:
An operation processing method, implemented by an operation processing device, the method comprising: detecting an element in a current interface; generating at least one corresponding operation control according to the element; dragging the operation control through a touch screen; judging a final location of the dragging; and after it is determined that any one of the at least one operation control is moved onto the element, executing an operation corresponding to the moved operation control on the element; wherein the element comprises at least one of: a telephone number, a name of a contact, a pure text and a multimedia; and the at least one corresponding operation control generated according to the element comprises at least one of: calling, sending a text message, sending a multimedia message, and copying a text. detecting an element in a current interface; generating at least one corresponding operation control according to the element; dragging the operation control through a touch screen; judging a final location of the dragging; and after it is determined that any one of the at least one operation control is moved onto the element, executing an operation corresponding to the moved operation control on the element; wherein the element comprises at least one of: a telephone number, a name of a contact, a pure text and a multimedia; and the at least one corresponding operation control generated according to the element comprises at least one of: calling, sending a text message, sending a multimedia message, and copying a text.
A robotic leg orthosis for gait rehabilitation training, comprising: an orthosis that is installed on at least one of a knee, an ankle joint, a shin, and a calf of an affected leg which is a rehabilitation target, wherein the orthosis comprises: a sleeve surrounding at least one of the knee, the ankle joint, the shin, and the calf; and an air chamber which is mounted so as to be connected to the sleeve and provides assisting strength to at least one of the knee, the ankle joint, the shin, and the calf, and characterised in that the robotic leg orthosis for gait rehabilitation training further comprises a luggage carrier that generates compressed air and is capable of supplying the generated compressed air to the air chambers, wherein the luggage carrier is capable of performing autonomous driving. an orthosis that is installed on at least one of a knee, an ankle joint, a shin, and a calf of an affected leg which is a rehabilitation target, wherein the orthosis comprises: a sleeve surrounding at least one of the knee, the ankle joint, the shin, and the calf; and an air chamber which is mounted so as to be connected to the sleeve and provides assisting strength to at least one of the knee, the ankle joint, the shin, and the calf, and characterised in that the robotic leg orthosis for gait rehabilitation training further comprises a luggage carrier that generates compressed air and is capable of supplying the generated compressed air to the air chambers, wherein the luggage carrier is capable of performing autonomous driving. a sleeve surrounding at least one of the knee, the ankle joint, the shin, and the calf; and an air chamber which is mounted so as to be connected to the sleeve and provides assisting strength to at least one of the knee, the ankle joint, the shin, and the calf, and characterised in that the robotic leg orthosis for gait rehabilitation training further comprises a luggage carrier that generates compressed air and is capable of supplying the generated compressed air to the air chambers, wherein the luggage carrier is capable of performing autonomous driving.
Method for automatically determining an equalizing filter characteristic for an indoor communication system of a vehicular cabin, the indoor communication system comprising at least one loudspeaker and at least one microphone array connected to a beamformer (105; 105'), the at least one loudspeaker associated with the at least one microphone array and a corresponding speaker position, comprising the steps of: a) emitting a predetermined test signal by a loudspeaker, in particular, by one loudspeaker, of the indoor communication system, b) receiving the test signal by a microphone array of the indoor communication system and beamforming the signals emanating from the microphone array using the beamformer connected thereto to obtain a received test signal, c) automatically determining a transfer function in the frequency domain based on the test signal and the received test signal, characterised in that the method further comprises the steps of d) automatically determining an equalizing filter characteristic based on determining an extremum, in particular, a maximum, of the magnitude of the the transfer function; and e) automatically determining a maximum amplification value as Gai n max = 1 / max | H e j ⁢ Ω G e j ⁢ Ω |. with H ( e j Ω) being the transfer function and G ( e j Ω) being the frequency response of the equalizing filter. a) emitting a predetermined test signal by a loudspeaker, in particular, by one loudspeaker, of the indoor communication system, b) receiving the test signal by a microphone array of the indoor communication system and beamforming the signals emanating from the microphone array using the beamformer connected thereto to obtain a received test signal, c) automatically determining a transfer function in the frequency domain based on the test signal and the received test signal, characterised in that the method further comprises the steps of d) automatically determining an equalizing filter characteristic based on determining an extremum, in particular, a maximum, of the magnitude of the the transfer function; and e) automatically determining a maximum amplification value as Gai n max = 1 / max | H e j ⁢ Ω G e j ⁢ Ω |. with H ( e j Ω) being the transfer function and G ( e j Ω) being the frequency response of the equalizing filter.
A method of making an at least substantially hollow aerofoil having a separately manufactured root member comprising the steps of: (a) providing at least two metal sheets (10, 12, 16) having edges; (b) welding the at least two metal sheets (10, 12, 16) together about their edges (c) diffusion bonding the welded metal sheets together; (d) manufacturing a root member having a surface shaped to receive an end of said joined metal sheets (10, 12, 16); (e) welding said end of the diffusion bonded metal sheets (10, 12, 16) to said surface of the root member to form an assembly; (f) placing the metal sheets in a die having inner opposed respective aerofoil suction and pressure surfaces; (g) heating the metal sheets and subjecting the interior of the metal sheets to a pressure sufficient to expand the metal sheets into the respective die inner surfaces so as to adopt an aerofoil form; (h) converting the welded joint between the diffusion bonded metal sheets and the root member to a diffusion bond. (a) providing at least two metal sheets (10, 12, 16) having edges; (b) welding the at least two metal sheets (10, 12, 16) together about their edges (c) diffusion bonding the welded metal sheets together; (d) manufacturing a root member having a surface shaped to receive an end of said joined metal sheets (10, 12, 16); (e) welding said end of the diffusion bonded metal sheets (10, 12, 16) to said surface of the root member to form an assembly; (f) placing the metal sheets in a die having inner opposed respective aerofoil suction and pressure surfaces; (g) heating the metal sheets and subjecting the interior of the metal sheets to a pressure sufficient to expand the metal sheets into the respective die inner surfaces so as to adopt an aerofoil form; (h) converting the welded joint between the diffusion bonded metal sheets and the root member to a diffusion bond.
Electric control mechanism provided with a support and a button, wherein said control mechanism comprises a central body arranged on the support, wherein said button is borne by the central body and has a degree of freedom in rotation relative to the central body, wherein a remote axis of rotation (AXROTD) of said button is parallel to a central axis of rotation (AXROTC), a first return means being interposed between the central body and the button and exerting a force on the button to position it in a neutral position (POSN), a second return means being interposed between the central body and the support and exerting a force on the central body to position said button in said neutral position (POSN); characterized in that the central body has only one degree of freedom in rotation about the central axis of rotation (AXROTC) relative to the support, wherein said button has only one degree of freedom in rotation relative to the central body around said offset axis of rotation (AXROTD), wherein said control mechanism comprises two primary electrical switches (31, 34) interposed between the button and the central body on either side of a plane containing said central axis of rotation (AXROTC) and said offset axis of rotation (AXROTD) for detecting a rotation of the button relative to the central body, wherein said control mechanism comprises two secondary electrical switches (41, 44) interposed between the support and the central body on either side of said plane to detect a rotation of the central body relative to the support; and wherein the first return means has a stiffness less than the stiffness of the second return means.
A tethered drone system (100, 500), comprising: a tethered drone (102, 200, 504) including a tether (104, 219, 506), wherein the tether (104, 219, 506) includes a conductor configured to communicate at least power and control signals a platform, and a control system configured to control the tethered drone (102, 200, 504), wherein the control system is configured to provide power for the tethered drone (102, 200, 504), and wherein the control system includes a user interface for controlling the control signals; the control signals including an encrypted, virtual or proprietary signal used by the tether (104, 219, 506) between the tethered drone (102, 200, 504) and the control system to prevent unwanted access to the tethered drone (102, 200, 504); characterised in that the tether (104, 219, 506) is configured to employ an automated docking system for adding the tether (104, 219, 506) to the drone using a tether interface; and wherein the tethered drone system is configured to extend the tethered drone from the platform, wherein the tethered drone is configured to be driven or propelled from the platform to an applicable position, location, object, structure, or coordinates, wherein the tether (104,219, 506) is configured to be released based on a pulling force from the tethered drone (102, 200, 504) or is configured to be automatically spooled out by the platform. a tethered drone (102, 200, 504) including a tether (104, 219, 506), wherein the tether (104, 219, 506) includes a conductor configured to communicate at least power and control signals a platform, and a control system configured to control the tethered drone (102, 200, 504), wherein the control system is configured to provide power for the tethered drone (102, 200, 504), and wherein the control system includes a user interface for controlling the control signals; the control signals including an encrypted, virtual or proprietary signal used by the tether (104, 219, 506) between the tethered drone (102, 200, 504) and the control system to prevent unwanted access to the tethered drone (102, 200, 504); characterised in that the tether (104, 219, 506) is configured to employ an automated docking system for adding the tether (104, 219, 506) to the drone using a tether interface; and wherein the tethered drone system is configured to extend the tethered drone from the platform, wherein the tethered drone is configured to be driven or propelled from the platform to an applicable position, location, object, structure, or coordinates, wherein the tether (104,219, 506) is configured to be released based on a pulling force from the tethered drone (102, 200, 504) or is configured to be automatically spooled out by the platform.
2-(3,5-dichloro-4-((5-isopropyl-6-oxo-1,6-dihydropyridazin-3-yl)oxy-yl)oxy)phenyl)-3,5-dioxo-2,3,4,5-tetrahydro-1,2,4-triazine-6-carbonitrile ("Compound A") for use in a method of treating nonalcoholic steatohepatitis in a subject in need thereof, the method comprising: (a) performing a first biomarker test on a first biological sample obtained from the subject, wherein the first biomarker test measures the expression level of a biomarker, the biomarker being sex hormone-binding globulin (SHBG); (b) administering a first dose of Compound A to the subject daily for a first period of time; (c) performing a second biomarker test on a biological sample obtained from the subject, wherein the second biomarker test measures a second expression level of SHBG; (d) determining a change or degree of change in the expression level of SHBG based on the results in steps (a) and (c), to determine sensitivity of the subject to Compound A; and (e) administering a second dose of Compound A to the subject for a second period of time based on the sensitivity result from step (d). (a) performing a first biomarker test on a first biological sample obtained from the subject, wherein the first biomarker test measures the expression level of a biomarker, the biomarker being sex hormone-binding globulin (SHBG); (b) administering a first dose of Compound A to the subject daily for a first period of time; (c) performing a second biomarker test on a biological sample obtained from the subject, wherein the second biomarker test measures a second expression level of SHBG; (d) determining a change or degree of change in the expression level of SHBG based on the results in steps (a) and (c), to determine sensitivity of the subject to Compound A; and (e) administering a second dose of Compound A to the subject for a second period of time based on the sensitivity result from step (d).
A method of making a vacuum insulating panel, the vacuum insulating panel comprising a first glass substrate, a second glass substrate, a plurality of spacers provided in a gap between at least the first and second glass substrates, and a seal provided at least partially between at least the first and second glass substrates, the seal comprising a first seal layer; wherein the method comprises: providing first seal material for the first seal layer at a location at least partially between at least the first and second glass substrates; pre-heating the glass substrates and the first seal material; after said pre-heating, laser heating the first seal material in order to fire and/or sinter the first seal material and form the first seal layer, wherein said laser heating causes the first seal material to reach a temperature above a melting point (Tm) of the first seal material for no more than about 5 seconds; wherein the first seal layer, after said laser heating, comprises from about 20-80% tellurium oxide, the tellurium oxide comprising TeO 4 and TeO 3, and wherein the first seal layer comprises more TeO 3 than TeO 4 by wt.%, and a ratio TeO 4:TeO 3 in the first seal layer is from about 0.05 to 0.40; and after forming the first seal layer, evacuating the gap to a pressure less than atmospheric pressure. providing first seal material for the first seal layer at a location at least partially between at least the first and second glass substrates; pre-heating the glass substrates and the first seal material; after said pre-heating, laser heating the first seal material in order to fire and/or sinter the first seal material and form the first seal layer, wherein said laser heating causes the first seal material to reach a temperature above a melting point (Tm) of the first seal material for no more than about 5 seconds; wherein the first seal layer, after said laser heating, comprises from about 20-80% tellurium oxide, the tellurium oxide comprising TeO 4 and TeO 3, and wherein the first seal layer comprises more TeO 3 than TeO 4 by wt.%, and a ratio TeO 4:TeO 3 in the first seal layer is from about 0.05 to 0.40; and after forming the first seal layer, evacuating the gap to a pressure less than atmospheric pressure.
Sensor device for a vehicle, comprising: a control unit for actuating a movable part in the form of a door or a side mirror of the vehicle, and a sensor unit for monitoring at least a first activation area, wherein the control unit is adapted to actuate the movable part of the vehicle, when at least one activation action (H1, H2, B1, B2) of a user in the first activation area has been detected by the sensor unit, wherein the sensor unit is adapted to detect the at least one activation action (H1, H2, B1, B2) of the user by means of electromagnetic waves in the radio frequency range, characterized in that the sensor device is used, as a function of the speed of the vehicle, either for actuating the movable part of the vehicle or for assisted and/or autonomous driving of the vehicle, and that different activation areas (A1, A2, A3) are assigned to the sensor unit. a control unit for actuating a movable part in the form of a door or a side mirror of the vehicle, and a sensor unit for monitoring at least a first activation area, wherein the control unit is adapted to actuate the movable part of the vehicle, when at least one activation action (H1, H2, B1, B2) of a user in the first activation area has been detected by the sensor unit, wherein the sensor unit is adapted to detect the at least one activation action (H1, H2, B1, B2) of the user by means of electromagnetic waves in the radio frequency range, characterized in that the sensor device is used, as a function of the speed of the vehicle, either for actuating the movable part of the vehicle or for assisted and/or autonomous driving of the vehicle, and that different activation areas (A1, A2, A3) are assigned to the sensor unit.
An optical sensing device (101, 300) for surface plasmon resonance, the optical sensing device (101, 300) comprising: a first polariser (120a, 320a); a second polariser (120b, 320b), wherein the first polariser (120a, 320a) and the second polariser (120b, 320b) have respective transmission axes (122a, 322a, 122b, 322b) aligned in orthogonal directions; an SPR sensor arrangement (102, 302) comprising an SPR sensing surface (108, 308), the SPR sensor arrangement (102, 302) arranged to receive an incident light beam (140, 340) passed through the first polariser (120a, 320a) to be reflected at the SPR sensing surface (108, 308) and transmitted through the second polariser (120b, 320b) to provide a transmitted light beam (142, 342); characterized in that the optical sensing device (101, 300) comprises an optics arrangement (166, 366) configured to split the transmitted light beam (142, 342) into a p-polarisation beam to define a sensing signal (167a, 367a) and an s-polarisation beam to define a reference signal (167b, 367b); a detector arrangement (141, 341a, 341b) configured to detect the transmitted light beam (142, 342), the transmitted light beam (142, 342) comprising the sensing signal (167a, 367a) and the reference signal (167b, 367b); and a processor (144, 344) electrically coupled to the detector arrangement (141, 341a, 341b), the processor (144, 344) configured to perform a subtraction operation between the sensing signal (167a, 367a) and the reference signal (167b, 367b). a first polariser (120a, 320a); a second polariser (120b, 320b), wherein the first polariser (120a, 320a) and the second polariser (120b, 320b) have respective transmission axes (122a, 322a, 122b, 322b) aligned in orthogonal directions; an SPR sensor arrangement (102, 302) comprising an SPR sensing surface (108, 308), the SPR sensor arrangement (102, 302) arranged to receive an incident light beam (140, 340) passed through the first polariser (120a, 320a) to be reflected at the SPR sensing surface (108, 308) and transmitted through the second polariser (120b, 320b) to provide a transmitted light beam (142, 342); characterized in that the optical sensing device (101, 300) comprises an optics arrangement (166, 366) configured to split the transmitted light beam (142, 342) into a p-polarisation beam to define a sensing signal (167a, 367a) and an s-polarisation beam to define a reference signal (167b, 367b); a detector arrangement (141, 341a, 341b) configured to detect the transmitted light beam (142, 342), the transmitted light beam (142, 342) comprising the sensing signal (167a, 367a) and the reference signal (167b, 367b); and a processor (144, 344) electrically coupled to the detector arrangement (141, 341a, 341b), the processor (144, 344) configured to perform a subtraction operation between the sensing signal (167a, 367a) and the reference signal (167b, 367b).
A bucket assembly for use with a mop having a mop head, the bucket assembly comprising: an inner bucket assembly, the inner bucket assembly including a rinse bucket, a first reservoir, a fluid connection between the rinse bucket and the first reservoir, and at least one closure element disposed at the fluid connection and movable between an open position and a closed position, an outer bucket assembly, the outer bucket assembly including an outer bucket peripheral wall extending from an outer bucket base to form a second reservoir, the inner bucket assembly being disposed at least partially within the outer bucket assembly, a drainage channel fluidly connected to the second reservoir, the drainage channel being formed by at least one of the inner bucket assembly, the outer bucket assembly, and the inner bucket assembly and the outer bucket assembly, and wherein the first reservoir is otherwise sealed when the at least one closure element is in the open position. an inner bucket assembly, the inner bucket assembly including a rinse bucket, a first reservoir, a fluid connection between the rinse bucket and the first reservoir, and at least one closure element disposed at the fluid connection and movable between an open position and a closed position, an outer bucket assembly, the outer bucket assembly including an outer bucket peripheral wall extending from an outer bucket base to form a second reservoir, the inner bucket assembly being disposed at least partially within the outer bucket assembly, a drainage channel fluidly connected to the second reservoir, the drainage channel being formed by at least one of the inner bucket assembly, the outer bucket assembly, and the inner bucket assembly and the outer bucket assembly, and the inner bucket assembly, the outer bucket assembly, and the inner bucket assembly and the outer bucket assembly, and wherein the first reservoir is otherwise sealed when the at least one closure element is in the open position.
A separately packaged set of a product and a composition for use in the topical treatment of an area of skin of a person suffering from dysbiosis: - said product being free of a preservative, having a pH between 5.5 and 6.5 and comprising at least 90% by mass of a mixture consisting of water, glycerol, at least one crosslinked polyacrylate, and at least one polyol different from glycerol, - said composition being a bacterial transplantation composition comprising at least one biological material selected from the group consisting of a bacterium, an extract of a bacterium or an extract of a culture medium of a bacterium. - said product being free of a preservative, having a pH between 5.5 and 6.5 and comprising at least 90% by mass of a mixture consisting of water, glycerol, at least one crosslinked polyacrylate, and at least one polyol different from glycerol, - said composition being a bacterial transplantation composition comprising at least one biological material selected from the group consisting of a bacterium, an extract of a bacterium or an extract of a culture medium of a bacterium.