mhurhangee/ep-ind-claims huggingface dataset:
A blower comprising: a rotor shaft; a rotor assembled to the rotor shaft; an impeller assembled to the rotor shaft concentrically with the rotor; a blower case housing the impeller; a motor; a driving circuit for driving and controlling the motor; a motor board having the driving circuit; a flange portion rotatably supporting the rotor shaft; and a motor case to which the motor board is assembled, the motor case being integrally assembled to the blower case with the flange portion sandwiched therebetween; a stator core; a plurality of pole teeth; and a plurality of motor coils formed around the pole teeth of the stator core; wherein an air blowing port is provided in a part of the flange portion so as to be opened to the blower case, an air blowing channel communicating with the air blowing port is formed between the motor board assembled to the motor case and the flange portion, the air blowing channel is provided with a heat exchanger mounted on the motor board in a state where the heat exchanger is exposed toward the blower case from an opening of the flange portion, and heat radiation is performed by starting the motor, obtaining a part of air blown by rotation of the impeller through the air blowing port, and directly blowing the blown air to the motor coils through the air blowing channel provided with the heat exchanger and circulating the blown air to the impeller. a rotor shaft; a rotor assembled to the rotor shaft; an impeller assembled to the rotor shaft concentrically with the rotor; a blower case housing the impeller; a motor; a driving circuit for driving and controlling the motor; a motor board having the driving circuit; a flange portion rotatably supporting the rotor shaft; and a motor case to which the motor board is assembled, the motor case being integrally assembled to the blower case with the flange portion sandwiched therebetween; a stator core; a plurality of pole teeth; and a plurality of motor coils formed around the pole teeth of the stator core; wherein an air blowing port is provided in a part of the flange portion so as to be opened to the blower case, an air blowing channel communicating with the air blowing port is formed between the motor board assembled to the motor case and the flange portion, the air blowing channel is provided with a heat exchanger mounted on the motor board in a state where the heat exchanger is exposed toward the blower case from an opening of the flange portion, and heat radiation is performed by starting the motor, obtaining a part of air blown by rotation of the impeller through the air blowing port, and directly blowing the blown air to the motor coils through the air blowing channel provided with the heat exchanger and circulating the blown air to the impeller.
A display device, comprising: a driving gate electrode; a scan line separate from the driving gate electrode and extending in a first direction; a first data line to transmit a data signal, the first data line crossing the scan line; a driving voltage line to transmit a driving voltage (ELVDD), the driving voltage line crossing the scan line; a semiconductor member including a first channel region overlapping the driving gate electrode and a shielding part overlapping the first data line; and a control line including a main line portion extending in the first direction, and a detour portion, wherein the detour portion includes a first portion extending in a second direction crossing the first direction, and a second portion connected to the first portion and extending in a different direction from the second direction; and wherein the semiconductor member includes a second channel region overlapping the first portion of the detour portion, characterized in that the first portion of the detour portion of the control line is passing between the data line and the driving gate electrode. a driving gate electrode; a scan line separate from the driving gate electrode and extending in a first direction; a first data line to transmit a data signal, the first data line crossing the scan line; a driving voltage line to transmit a driving voltage (ELVDD), the driving voltage line crossing the scan line; a semiconductor member including a first channel region overlapping the driving gate electrode and a shielding part overlapping the first data line; and a control line including a main line portion extending in the first direction, and a detour portion, wherein the detour portion includes a first portion extending in a second direction crossing the first direction, and a second portion connected to the first portion and extending in a different direction from the second direction; and wherein the semiconductor member includes a second channel region overlapping the first portion of the detour portion, characterized in that the first portion of the detour portion of the control line is passing between the data line and the driving gate electrode.
A recovery system (200, 300) for an Unmanned Underwater Vehicle, the recovery system (200, 300) comprising a detachable load (206, 302) that renders the UUV neutrally buoyant in water; and characterized by a plurality of release mechanisms configured to detach the load (206, 302) to render the UUV positively buoyant in the water, the plurality of release mechanisms comprising: a first release mechanism (202, 402) configured to detach the load (206, 302) in response to a command signal; a second release mechanism (203, 403) configured to detach the load (206, 302) in response to the UUV being submerged in the water beyond a threshold time; and a third release mechanism (204, 404) configured to detach the load (206, 302) in response to the UUV exceeding a maximum depth in the water. a first release mechanism (202, 402) configured to detach the load (206, 302) in response to a command signal; a second release mechanism (203, 403) configured to detach the load (206, 302) in response to the UUV being submerged in the water beyond a threshold time; and a third release mechanism (204, 404) configured to detach the load (206, 302) in response to the UUV exceeding a maximum depth in the water.
Canopy for selectively covering an area, such as a sports field, comprising: - at least two longitudinal beams which span the area: - at least two cross beams which are displaceable along the longitudinal beams: - a cloth which is attached to the cross beams; - a drive which is configured to displace the cross beams with the cloth attached thereto along the longitudinal beams; and - an additional cloth attached to an additional cross beam, characterized in that the canopy comprises a substantially flexible tensioning member fastened between the cross beams; the drive or an additional drive is configured to displace the additional cross beam with the additional cloth attached thereto along the longitudinal beams independently of the cloth; and wherein the cloth is provided on an outer side of the longitudinal beams and wherein the additional cloth is provided on an inner side of the longitudinal beams. - at least two longitudinal beams which span the area: - at least two cross beams which are displaceable along the longitudinal beams: - a cloth which is attached to the cross beams; - a drive which is configured to displace the cross beams with the cloth attached thereto along the longitudinal beams; and - an additional cloth attached to an additional cross beam, characterized in that the canopy comprises a substantially flexible tensioning member fastened between the cross beams; the drive or an additional drive is configured to displace the additional cross beam with the additional cloth attached thereto along the longitudinal beams independently of the cloth; and wherein the cloth is provided on an outer side of the longitudinal beams and wherein the additional cloth is provided on an inner side of the longitudinal beams.
A battery charging system (210; 310) for a hybrid electric aircraft (200; 300), the battery charging system comprising: a generator; a battery system; and a controller configured to: charge the battery system up to a first charge level based on receiving a first charging current at a power input, wherein the first charging current is received from a ground-based power source through the power input during gate charging before the hybrid electric aircraft departs a gate, wherein the first charge level is a partially charged state; monitor an operational status of a gas turbine engine of the hybrid electric aircraft; and charge the battery system at a second charging level based on receiving a second charging current from the generator driven by the gas turbine engine responsive to determining that the gas turbine engine is in a taxi state during taxi charging, wherein the second charging current is less than the first charging current. a generator; a battery system; and a controller configured to: charge the battery system up to a first charge level based on receiving a first charging current at a power input, wherein the first charging current is received from a ground-based power source through the power input during gate charging before the hybrid electric aircraft departs a gate, wherein the first charge level is a partially charged state; monitor an operational status of a gas turbine engine of the hybrid electric aircraft; and charge the battery system at a second charging level based on receiving a second charging current from the generator driven by the gas turbine engine responsive to determining that the gas turbine engine is in a taxi state during taxi charging, wherein the second charging current is less than the first charging current. charge the battery system up to a first charge level based on receiving a first charging current at a power input, wherein the first charging current is received from a ground-based power source through the power input during gate charging before the hybrid electric aircraft departs a gate, wherein the first charge level is a partially charged state; monitor an operational status of a gas turbine engine of the hybrid electric aircraft; and charge the battery system at a second charging level based on receiving a second charging current from the generator driven by the gas turbine engine responsive to determining that the gas turbine engine is in a taxi state during taxi charging, wherein the second charging current is less than the first charging current.
A guardrail including: a plurality of support posts, a plurality of rails (3,5,6) slidably interconnected and mounted directly or indirectly to said posts, and an impact slider device substantially surrounding a first rail and including a portion which gathers and retains telescoping rails during an impact; characterized in that at least one cable (15, 15a) is provided along at least a part of the length of said slidably interconnected rails (3, 5, 6) wherein each end of said at least one cable (15, 15a) is fixed in relation to the ground, and said impact slider device is attached to the end of a first rail at or near a connection with a second rail, wherein the impact slider device is slidable along the second rail. a plurality of support posts, a plurality of rails (3,5,6) slidably interconnected and mounted directly or indirectly to said posts, and an impact slider device substantially surrounding a first rail and including a portion which gathers and retains telescoping rails during an impact;
A solar cell comprising: a substrate formed of an n-type crystalline semiconductor; an emitter region of a p-type positioned at a first surface of the substrate; a first dielectric layer positioned on a second surface opposite the first surface of the substrate; second dielectric layers (131, 192, 193) respectively positioned on the emitter region and the first dielectric layer; a third dielectric layer positioned on the second dielectric layer that is positioned on the emitter region; a first electrode which is positioned on the first surface of the substrate and is connected to the emitter region; and a second electrode which is positioned on the second surface of the substrate and is connected to the substrate, wherein the emitter region has a first textured surface including a plurality of first protrusions each having a protruding height and a maximum diameter which are within a range of about 5 μm to 10 μm, wherein each of the plurality of first protrusions has a second textured surface including a plurality of second protrusions each having a protruding height and a maximum diameter which are within a range of about 300 nm to 600 nm, wherein the first dielectric layer and the third dielectric layer are formed of hydrogenated silicon nitride, and wherein the second dielectric layers (131, 192, 193) are formed of aluminum oxide. a substrate formed of an n-type crystalline semiconductor; an emitter region of a p-type positioned at a first surface of the substrate; a first dielectric layer positioned on a second surface opposite the first surface of the substrate; second dielectric layers (131, 192, 193) respectively positioned on the emitter region and the first dielectric layer; a third dielectric layer positioned on the second dielectric layer that is positioned on the emitter region; a first electrode which is positioned on the first surface of the substrate and is connected to the emitter region; and a second electrode which is positioned on the second surface of the substrate and is connected to the substrate, wherein the emitter region has a first textured surface including a plurality of first protrusions each having a protruding height and a maximum diameter which are within a range of about 5 μm to 10 μm, wherein each of the plurality of first protrusions has a second textured surface including a plurality of second protrusions each having a protruding height and a maximum diameter which are within a range of about 300 nm to 600 nm, wherein the first dielectric layer and the third dielectric layer are formed of hydrogenated silicon nitride, and wherein the second dielectric layers (131, 192, 193) are formed of aluminum oxide.
A polyolefin composition comprising: A) from 85.0 wt% to 99.5 wt%; A terpolymer containing propylene, ethylene and 1-hexene wherein: (i) the content of 1-hexene derived units ranges from 1.0 wt% to 5.0%; (ii) the content of ethylene derived units is comprised between 0.5 wt% and 10.0 wt% (iii) the melting temperature ranges from 130° C to 145° C; B) from 0.5 wt% to 15.0 wt%; of a propylene, ethylene copolymer composition comprising: b1) from 12 wt% to 52 wt%; of a propylene homopolymer or a propylene/ethylene copolymer having a content of ethylene derived units ranging from 0.1 wt% to 4.5 wt%; and having a xylene soluble content measured at 25°C lower than 10 wt%; b2) from 48 wt% to 88 wt% of a propylene ethylene copolymer having a content of ethylene derived units ranging from 15.0 wt% to wt% to 42.0 wt%; wherein the resulting polyolefin composition has an melt flow rate (230°C/5 kg.. ISO 1133) ranging from 0.2 g/10min to 4.0 g/10min; the sum A+B being 100 and the sum b1+b2 being 100. A) from 85.0 wt% to 99.5 wt%; A terpolymer containing propylene, ethylene and 1-hexene wherein: (i) the content of 1-hexene derived units ranges from 1.0 wt% to 5.0%; (ii) the content of ethylene derived units is comprised between 0.5 wt% and 10.0 wt% (iii) the melting temperature ranges from 130° C to 145° C; (i) the content of 1-hexene derived units ranges from 1.0 wt% to 5.0%; (ii) the content of ethylene derived units is comprised between 0.5 wt% and 10.0 wt% (iii) the melting temperature ranges from 130° C to 145° C; B) from 0.5 wt% to 15.0 wt%; of a propylene, ethylene copolymer composition comprising: b1) from 12 wt% to 52 wt%; of a propylene homopolymer or a propylene/ethylene copolymer having a content of ethylene derived units ranging from 0.1 wt% to 4.5 wt%; and having a xylene soluble content measured at 25°C lower than 10 wt%; b2) from 48 wt% to 88 wt% of a propylene ethylene copolymer having a content of ethylene derived units ranging from 15.0 wt% to wt% to 42.0 wt%; wherein the resulting polyolefin composition has an melt flow rate (230°C/5 kg.. ISO 1133) ranging from 0.2 g/10min to 4.0 g/10min; the sum A+B being 100 and the sum b1+b2 being 100. b1) from 12 wt% to 52 wt%; of a propylene homopolymer or a propylene/ethylene copolymer having a content of ethylene derived units ranging from 0.1 wt% to 4.5 wt%; and having a xylene soluble content measured at 25°C lower than 10 wt%; b2) from 48 wt% to 88 wt% of a propylene ethylene copolymer having a content of ethylene derived units ranging from 15.0 wt% to wt% to 42.0 wt%; wherein the resulting polyolefin composition has an melt flow rate (230°C/5 kg.. ISO 1133) ranging from 0.2 g/10min to 4.0 g/10min; the sum A+B being 100 and the sum b1+b2 being 100.
Granules consisting substantially of potassium, magnesium, calcium and sulfate in the form of salts, a part of the potassium, magnesium, calcium and sulfate being present in the form of polyhalite, and the remainders of the potassium, calcium, magnesium and sulfate being present in the form of sulfates of potassium, calcium and/or magnesium which at 20°C in deionized water dissolve more rapidly and/or have a better solubility than polyhalite, wherein the fraction of polyhalite is in the range from 15% to 80% by weight, based on the total mass of the salts contained in the granules, and the fraction of sulfates of potassium, calcium and/or magnesium is in the range from 20% to 85% by weight, based on the total mass of the salts contained in the granules.
A method for processing flue dusts produced in the smelting of copper ores, in which the flue dusts are heated after the addition of sulfur and/or at least a sulfur compound and volatile components are separated and in which the heating of the flue dusts is carried out in an inert atmosphere and the treatment of the flue dusts is carried out as a continuous process, wherein a pyrometallurgical treatment of the flue dusts takes place and in which an exhaust gas treatment for separating volatile components, namely arsenic-sulfur compounds, takes place, characterised in that the processing of the flue dusts takes place in the fluidised bed process.
A downhole tool comprising: a tubular body (112, 212); a collar (28, 28', 228) for location on the tubular body (112, 212), the collar (28, 28', 228) reconfigurable from a first diameter configuration in which the collar comprises an initial internal diameter which permits the collar to pass over and translate along the tubular body, to a second, smaller, diameter configuration in which the collar comprises a second, smaller, internal diameter, wherein the collar (28, 28', 228) is configured to be plastically deformed to reconfigure the collar from the first diameter configuration to the second, smaller, diameter configuration, wherein the collar (28, 28', 228) is rotatably mounted on the tubular body (112, 212) in the second configuration, and wherein the collar (28, 28', 228) is configured for engagement with a borehole or tubular as the downhole tool is run downhole, the collar (28, 28', 228) configured to support and offset the tubular body (112, 212) from said borehole or tubular to reduce or mitigate friction as the downhole tool is run downhole. a tubular body (112, 212); a collar (28, 28', 228) for location on the tubular body (112, 212), the collar (28, 28', 228) reconfigurable from a first diameter configuration in which the collar comprises an initial internal diameter which permits the collar to pass over and translate along the tubular body, to a second, smaller, diameter configuration in which the collar comprises a second, smaller, internal diameter, wherein the collar (28, 28', 228) is configured to be plastically deformed to reconfigure the collar from the first diameter configuration to the second, smaller, diameter configuration, wherein the collar (28, 28', 228) is rotatably mounted on the tubular body (112, 212) in the second configuration, and wherein the collar (28, 28', 228) is configured for engagement with a borehole or tubular as the downhole tool is run downhole, the collar (28, 28', 228) configured to support and offset the tubular body (112, 212) from said borehole or tubular to reduce or mitigate friction as the downhole tool is run downhole.
A composition of CD8+ T cells enriched for a population of long-lived human memory CD8+ T cells that have high surface expression of CD161 and IL-18Rα, wherein the long-lived human memory CD8 + T cells that have high surface expression of CD161 and IL-18Rα: make up at least 30% of the total CD8+ T cells in the composition; proliferate in response to IL-7, IL-15 or both IL-7 and IL-15; and are genetically modified to express an engineered immunoreceptor. make up at least 30% of the total CD8+ T cells in the composition; proliferate in response to IL-7, IL-15 or both IL-7 and IL-15; and are genetically modified to express an engineered immunoreceptor.
Closing unit to close an aperture of at least one capsule with a closing element to form an encapsulated article, said closing unit comprising: - an engagement device provided with at least a holding seating configured to be temporarily associated with said closing element, said engagement device being able to move said holding seating in order to position said closing element in cooperation with said aperture of said capsule; - a welding device configured to weld said closing element in direct connection at least with an abutment portion of said capsule, wherein said engagement device is configured to temporarily position said closing element at an engagement angle (θ) with respect to said aperture, said engagement angle (θ) being defined as the angle comprised between a first lying plane (π) of said aperture and a second lying plane (γ) of said closing element, and wherein said engagement device is also configured to dispose said at least one closing element in an inclined position, in contact with said capsule; said closing unit being characterized in that said at least a holding seating is configured to receive or remove said closing elements holding them by interference. - an engagement device provided with at least a holding seating configured to be temporarily associated with said closing element, said engagement device being able to move said holding seating in order to position said closing element in cooperation with said aperture of said capsule; - a welding device configured to weld said closing element in direct connection at least with an abutment portion of said capsule,
Fuel injection valve for internal combustion engines, the fuel injection valve having a pressure chamber with a nozzle needle which is longitudinally movable in said pressure chamber and which interacts with a nozzle seat and which, by way of its longitudinal movement, opens and closes the connection of the pressure chamber to an injection opening; a control chamber which can be filled with pressurized fuel via an inflow throttle and which controls a closing force on the nozzle needle; a control chamber sleeve for guiding the nozzle needle; a valve body for receiving a control piston with an outflow throttle which is connectable on one side to the control chamber and on another side to a low-pressure chamber; wherein the control chamber is delimited by the control chamber sleeve; and the valve body has a guide region for guiding the control piston and a valve piece, wherein the guide region and the valve piece are designed as separate components, characterized in that the inflow throttle is provided in the valve piece.