mhurhangee/ep-ind-claims huggingface dataset:
A display device for an electrically driven motor scooter, featuring the following: - a first display device, i.e., a flat screen, having a first resolution; - a second electric or electronic display device having a second resolution, wherein the second resolution preferably is significantly lower than the first resolution, wherein the display device is configured to display information based on a measured value and/or a variable at the same time on the first display device and the second display device, characterized in that the first resolution is by at least 70 % higher than the second resolution, and wherein the first display device comprises an LCD flat screen, a plasma flat screen or an OLED flat screen having a resolution of more than 1000 pixels. - a first display device, i.e., a flat screen, having a first resolution; - a second electric or electronic display device having a second resolution, wherein the second resolution preferably is significantly lower than the first resolution, the display device is configured to display information based on a measured value and/or a variable at the same time on the first display device and the second display device, characterized in that the first resolution is by at least 70 % higher than the second resolution, and wherein the first display device comprises an LCD flat screen, a plasma flat screen or an OLED flat screen having a resolution of more than 1000 pixels.
A vehicle comprising: a power storage device; a boost device boosting a voltage from said power storage device; a first drive device receiving a voltage boosted by said boost device; and a first rotating electric machine with a permanent magnet, configured to be driven by said first drive device and drive a main drive wheel; characterized by a second drive device ( 40, 40A) connected to said power storage device; a second rotating electric machine ( 45, 45A) without a permanent magnet, configured to be driven by said second drive device ( 40, 40A) and drive a driven wheel; a third drive device connected in parallel to said first drive device with respect to said boost device; and a third rotating electric machine with a permanent magnet, configured to be driven by said third drive device and start an engine. a power storage device; a boost device boosting a voltage from said power storage device; a first drive device receiving a voltage boosted by said boost device; and a first rotating electric machine with a permanent magnet, configured to be driven by said first drive device and drive a main drive wheel; characterized by a second drive device ( 40, 40A) connected to said power storage device; a second rotating electric machine ( 45, 45A) without a permanent magnet, configured to be driven by said second drive device ( 40, 40A) and drive a driven wheel; a third drive device connected in parallel to said first drive device with respect to said boost device; and a third rotating electric machine with a permanent magnet, configured to be driven by said third drive device and start an engine.
A method performed by a network node for downlink pilot signal assignment and transmission, and for data transmission, wherein the network node has a plurality of antenna elements distributed over an area, wherein the network node and at least one wireless device are operating in a wireless communications network, and wherein the method comprises: - determining a respective Channel State Information, CSI, and a respective channel hardening degree for the at least one wireless device based on an uplink pilot signal received from the at least one wireless device; - determining a respective mobility condition for the at least one wireless device; - based on one or more out of: the determined respective CSI, the determined respective channel hardening degree and the determined respective mobility condition, obtaining a respective pilot utility metric for the at least one wireless device; wherein the respective pilot utility metric is a function that considers the respective mobility condition, the respective channel hardening degree, and the respective CSI, at each wireless device; - assigning a respective downlink pilot signal to at least one wireless device out of the at least one wireless devices having a respective pilot utility metric exceeding a predetermined threshold value; and - transmitting, to the at least one wireless device out of the at least one wireless devices, data and an assigned respective downlink pilot signal. - determining a respective Channel State Information, CSI, and a respective channel hardening degree for the at least one wireless device based on an uplink pilot signal received from the at least one wireless device; - determining a respective mobility condition for the at least one wireless device; - based on one or more out of: the determined respective CSI, the determined respective channel hardening degree and the determined respective mobility condition, obtaining a respective pilot utility metric for the at least one wireless device; wherein the respective pilot utility metric is a function that considers the respective mobility condition, the respective channel hardening degree, and the respective CSI, at each wireless device; - assigning a respective downlink pilot signal to at least one wireless device out of the at least one wireless devices having a respective pilot utility metric exceeding a predetermined threshold value; and - transmitting, to the at least one wireless device out of the at least one wireless devices, data and an assigned respective downlink pilot signal.
A blocked isocyanate in which a polyisocyanate compound is blocked with a blocking agent, wherein the blocked isocyanate contains a first latent isocyanate group in which an isocyanate group is blocked with a first blocking agent, and a second latent isocyanate group in which an isocyanate group is blocked with a second blocking agent, the first blocking agent is represented by general formula below and has a higher catalyst activity that activates the isocyanate group than that of the second blocking agent, and the polyisocyanate compound is a reaction product of a high molecular weight polyol having a number average molecular weight of 250 or more and polyisocyanate, and the high molecular weight polyol having a number average molecular weight of 250 or more is at least one polyol selected from the group consisting of polycarbonatepolyol, polyesterpolyol, and polytetramethylene ether glycol: (in the formula, R 1 to R 3 represent a hydrocarbon group having 1 to 12 carbon atoms or a hydrogen atom and at least one of R 1 to R 3 represents a hydrogen atom, and R 1 and R 3 are optionally bonded to each other to form a heterocycle; R 4 and R 5 represent a hydrocarbon group having 1 to 12 carbon atoms, R 4 and R 1 are optionally bonded to each other to form a heterocycle, and R 5 and R 3 are optionally bonded to each other to form a heterocycle). the blocked isocyanate contains a first latent isocyanate group in which an isocyanate group is blocked with a first blocking agent, and a second latent isocyanate group in which an isocyanate group is blocked with a second blocking agent, the first blocking agent is represented by general formula below and has a higher catalyst activity that activates the isocyanate group than that of the second blocking agent, and the polyisocyanate compound is a reaction product of a high molecular weight polyol having a number average molecular weight of 250 or more and polyisocyanate, and the high molecular weight polyol having a number average molecular weight of 250 or more is at least one polyol selected from the group consisting of polycarbonatepolyol, polyesterpolyol, and polytetramethylene ether glycol: (in the formula, R 1 to R 3 represent a hydrocarbon group having 1 to 12 carbon atoms or a hydrogen atom and at least one of R 1 to R 3 represents a hydrogen atom, and R 1 and R 3 are optionally bonded to each other to form a heterocycle; R 4 and R 5 represent a hydrocarbon group having 1 to 12 carbon atoms, R 4 and R 1 are optionally bonded to each other to form a heterocycle, and R 5 and R 3 are optionally bonded to each other to form a heterocycle).
An actuator-equipped knee ankle foot orthosis comprising a thigh-side brace to be attached to the user's thigh; a lower leg-side brace to be attached to the user's lower leg, the lower leg-side brace being connected to the thigh-side brace so as to be rotatable around the user's knee joint; an actuator unit attached to the thigh-side brace and capable of imparting assisting force around the knee joint to the lower leg-side brace; a thigh orientation detecting means (510, 511, 515) capable of detecting an angle-related signal concerning a hip joint angle (θn) that is a forward and backward swing angle of the user's thigh; and a control device managing operational control for the actuator unit, the actuator-equipped knee ankle foot orthosis being characterized in that the thigh orientation detecting means includes a triaxial angular velocity sensor which is configured to detect an angular velocity of the user's thigh and a triaxial acceleration sensor which is configured to detect an acceleration of the user's thigh, the control device is configured to calculate a first Euler angle based on angular velocity data that is obtained by performing drift elimination, using angular velocity data received from the triaxial angular velocity sensor when the user is at rest, on angular velocity data received from the triaxial angular velocity sensor at a sampling point (Sn), to calculate a combined Euler angle at the sampling point (Sn) by combining a high-frequency component of the first Euler angle and a low-frequency component of a second Euler angle calculated based on acceleration data from the triaxial acceleration sensor at the sampling point (Sn), to calculate a thigh phase angle (φn) at the sampling point (Sn) based on a hip joint angle (θn) calculated from the combined Euler angle and a hip joint angular velocity (ωn) calculated from the hip joint angle (θn), to apply the thigh phase angle (φn) at the sampling point (Sn) to an assisting force control data, which is stored in the control device in advance and indicates the relationship between the thigh phase angle (φn) and a size of the assisting force to be imparted to the lower leg-side brace, to obtain the size of the assisting force to be imparted to the lower leg-side brace at the sampling point (Sn), and to execute operational control for the actuator unit such that the assisting force having the size is output.
A shaving razor cartridge comprising: a housing having a top surface and a bottom surface; a guard at a front portion of the housing; a cap at a rear portion of the housing; at least one blade member mounted to the housing between the guard and the cap, wherein the housing defines an opening extending from the top surface to the bottom surface that is configured to receive a portion of a handle, wherein the bottom surface has a handle docking alignment member (78, 88) indicating an intended direction for the handle to be inserted into the opening, characterized in that the handle docking alignment member is an arrow. a housing having a top surface and a bottom surface; a guard at a front portion of the housing; a cap at a rear portion of the housing; at least one blade member mounted to the housing between the guard and the cap,
An escape system comprising: • a textile support of variable cross-section comprising a first part having a first cross-section and provided with a first end and a second part having a second cross-section smaller than the first section and provided with a second end, • a descender mounted sliding along the textile support from the first part to the second part, and configured to exert a braking force on the textile support, escape system characterized in that it comprises at least one brake mounted sliding along the textile support in the second part, the brake being ∘ configured to exert an additional braking force on the textile support when the brake is moving toward the second end, ∘ distinct from the descender so as to allow the descender to move independently from the brake, ∘ disposed between the descender and the second end, ∘ configured to prevent the descender from moving alone in the second part toward the second end. • a textile support of variable cross-section comprising a first part having a first cross-section and provided with a first end and a second part having a second cross-section smaller than the first section and provided with a second end, • a descender mounted sliding along the textile support from the first part to the second part, and configured to exert a braking force on the textile support, escape system characterized in that it comprises at least one brake mounted sliding along the textile support in the second part, the brake being ∘ configured to exert an additional braking force on the textile support when the brake is moving toward the second end, ∘ distinct from the descender so as to allow the descender to move independently from the brake, ∘ disposed between the descender and the second end, ∘ configured to prevent the descender from moving alone in the second part toward the second end. ∘ configured to exert an additional braking force on the textile support when the brake is moving toward the second end, ∘ distinct from the descender so as to allow the descender to move independently from the brake, ∘ disposed between the descender and the second end, ∘ configured to prevent the descender from moving alone in the second part toward the second end.
Capsule for obtaining infusions such as espresso, herbal teas or beverages from water-soluble products characterised in that a film of flexible material is welded in the bottom of the capsule in two areas and that are distinct and enclosed inside one another, the inner welding being weaker than the outer welding, the film being equipped with one or more openings, and the bottom of the capsule being equipped with one or more openings so that under the action of the internal pressure of the capsule when it is dispensed, the liquid comes out from the lower openings of the capsule, forces the weak welding and comes out from the openings in the film.
A method, comprising: determining, by a primary base station, to add a cell of a secondary base station for a user equipment UE; sending, by the primary base station, a first message to the UE, wherein the first message is used to instruct the UE to establish signal radio bearer, SRB, with the secondary base station; wherein the first message is further used to instruct the UE to add the cell and the first message comprises: configuration information of the cell and an identifier or index of the secondary base station to which the cell belongs. determining, by a primary base station, to add a cell of a secondary base station for a user equipment UE; sending, by the primary base station, a first message to the UE, wherein the first message is used to instruct the UE to establish signal radio bearer, SRB, with the secondary base station; wherein the first message is further used to instruct the UE to add the cell and the first message comprises: configuration information of the cell and an identifier or index of the secondary base station to which the cell belongs.
A spectacle lens comprising: a first area that causes light rays incident on an object-side face of the lens to exit from an eyeball-side face of the lens and to converge at a predetermined position A on a retina of a wearer; and a plurality of defocusing second areas configured to cause light rays to converge at a position B on the object side or a position C on the distal side relative to the position A, wherein at least some of the second areas in a peripheral area of the spectacle lens that is at a radius range from 4.5 mm to 25 mm from a lens center have a shape that suppresses a variation in a defocusing effect, the variation in the defocusing effect being at least one of refractive power error and astigmatism occurring in the defocusing power imparted by the second areas, wherein the second areas are convex areas, and at least some of the second areas in the peripheral area of the spectacle lens have a toric shape that cancels out astigmatism imparted by the second areas in defocusing power occurring in the peripheral area. a first area that causes light rays incident on an object-side face of the lens to exit from an eyeball-side face of the lens and to converge at a predetermined position A on a retina of a wearer; and a plurality of defocusing second areas configured to cause light rays to converge at a position B on the object side or a position C on the distal side relative to the position A, wherein at least some of the second areas in a peripheral area of the spectacle lens that is at a radius range from 4.5 mm to 25 mm from a lens center have a shape that suppresses a variation in a defocusing effect, the variation in the defocusing effect being at least one of refractive power error and astigmatism occurring in the defocusing power imparted by the second areas, wherein the second areas are convex areas, and at least some of the second areas in the peripheral area of the spectacle lens have a toric shape that cancels out astigmatism imparted by the second areas in defocusing power occurring in the peripheral area.
An engine comprising a cylinder having a first engine valve and a second engine valve, and a system for actuating the first and second engine valves, the system comprising: a first master piston configured to receive first valve actuation motions from a first motion source; a second master piston configured to receive second valve actuation motions from a second motion source; a first slave piston operatively connected to the first engine valve and configured to hydraulically receive the first valve actuation motions from at least the first master piston; a second slave piston operatively connected to the second engine valve and configured to hydraulically receive the second valve actuation motions from the second master piston; a hydraulic passage providing hydraulic communication between the second master piston and the first slave piston, wherein the first slave piston hydraulically receives the second valve actuation motions from the second master piston via the hydraulic passage; an accumulator; and a mode selector valve in hydraulic communication with the first master piston, the first slave piston and the accumulator, where in the mode selector valve is operable to selectively hydraulically connect the first master piston to the accumulator, wherein the first and second engine valves are either both intake valves or both exhaust valves. a first master piston configured to receive first valve actuation motions from a first motion source; a second master piston configured to receive second valve actuation motions from a second motion source; a first slave piston operatively connected to the first engine valve and configured to hydraulically receive the first valve actuation motions from at least the first master piston; a second slave piston operatively connected to the second engine valve and configured to hydraulically receive the second valve actuation motions from the second master piston; a hydraulic passage providing hydraulic communication between the second master piston and the first slave piston, wherein the first slave piston hydraulically receives the second valve actuation motions from the second master piston via the hydraulic passage; an accumulator; and a mode selector valve in hydraulic communication with the first master piston, the first slave piston and the accumulator, where in the mode selector valve is operable to selectively hydraulically connect the first master piston to the accumulator, wherein the first and second engine valves are either both intake valves or both exhaust valves.
A non-thermal system for removing surface moisture from granulated coal or other materials in particulate form, the system comprising a dryer, wherein the dryer has: an in-feed for material particles; an in-feed for entrainment gas(es), to provide dilute phase gas entrainment of the particles; and turbulence-inducing means configured to subject the flow of gas-entrained particles to turbulence to strip water from the surface of the entrained particles substantially without applying heat energy to the entrained particles, charaterised in that the turbulence-inducing means comprises a supply of dry gas(es) in use and that said turbulence-inducing means delivers the dry gas(es) so as to impinge on or intersect with the gas-entrained particle flow whereby inducing said turbulence, wherein the dryer comprises a rotor within a stator body, the stator body having the form of a tubular main duct through which the gas-entrained particles flow in use.
Method for detecting buried services, including an underground conduit or wiring system at a construction site, by electromagnetic means, comprising the following steps: ▪ introducing an artificially generated electrical detection signal, as an alternating electrical current of a desired frequency from a current-source, indirectly via soil to the buried service, ▪ detecting an electromagnetic field originating from the introduced underground detection signal, which is floating along the buried services, by a mobile detection unit above ground, and ▪ determining the proximity of the structure to the detection unit according to the detected electromagnetic field of the detection signal, characterized in that, the soil conducted detection signal is supplied via a mains socket, in such a way that the flow-path of the detection signal is: ▪ from the current-source to a first remotely grounded conductor of mains wiring at the socket, ▪ via the first conductor from the socket to a remote substation of a mains supply network, where the first conductor is grounded, so that the detection signal is conducted to soil material, ▪ floating through the soil material and following at least a part of the buried service as path of least resistance within the soil material, ▪ from the buried service through soil material to a domestic earthing point, where a second conductor of mains wiring is grounded, whereby said second conductor is a protective earth conductor, ▪ via the second conductor to the mains socket and back to the current-source, or vice versa. ▪ introducing an artificially generated electrical detection signal, as an alternating electrical current of a desired frequency from a current-source, indirectly via soil to the buried service, ▪ detecting an electromagnetic field originating from the introduced underground detection signal, which is floating along the buried services, by a mobile detection unit above ground, and ▪ determining the proximity of the structure to the detection unit according to the detected electromagnetic field of the detection signal, ▪ from the current-source to a first remotely grounded conductor of mains wiring at the socket, ▪ via the first conductor from the socket to a remote substation of a mains supply network, where the first conductor is grounded, so that the detection signal is conducted to soil material, ▪ floating through the soil material and following at least a part of the buried service as path of least resistance within the soil material, ▪ from the buried service through soil material to a domestic earthing point, where a second conductor of mains wiring is grounded, whereby said second conductor is a protective earth conductor, ▪ via the second conductor to the mains socket and back to the current-source, or vice versa.