mhurhangee/ep-ind-claims huggingface dataset:
An illumination apparatus that emits light to an object to be read, the illumination apparatus comprising: a light source that emits light; and a light guide (30, 50) comprising: a curved portion (31, 51) comprising a light incident surface (32, 52), which is adapted so that the light from the light source can enter; and a linear portion (36, 56) comprising a light emission surface (38, 58) adapted to emit the light to the object to be read, the linear portion (36, 56) coupled to the curved portion (31, 51) and extended in a main-scan direction, the curved portion (31, 51) adapted to reflect the light entered from the light incident surface (32, 52) to the linear portion (36, 56), wherein the light guide (30, 50) comprises an inclined portion inclined in a direction that increases an incident angle (β) of the light incident to the inclined portion, the inclined portion formed in a range of the linear portion (36, 56) where the light reflected by the curved portion (31, 51) enters, characterized in that part of the inclined portion is inclined with respect to the main-scan direction at an angle a > 0 to an opposite side of a side where the linear portion (36, 56) is adapted to emit the light to the object to be read, wherein the inclined portion is inclined from a boundary portion (33, 53) or from a position near the boundary portion (33, 53) in a direction to the linear portion, and the boundary portion (33, 53) is a boundary of the curved portion (31, 51) and the linear portion (36, 56). a light source that emits light; and a light guide (30, 50) comprising: a curved portion (31, 51) comprising a light incident surface (32, 52), which is adapted so that the light from the light source can enter; and a linear portion (36, 56) comprising a light emission surface (38, 58) adapted to emit the light to the object to be read, the linear portion (36, 56) coupled to the curved portion (31, 51) and extended in a main-scan direction, the curved portion (31, 51) adapted to reflect the light entered from the light incident surface (32, 52) to the linear portion (36, 56), wherein the light guide (30, 50) comprises an inclined portion inclined in a direction that increases an incident angle (β) of the light incident to the inclined portion, the inclined portion formed in a range of the linear portion (36, 56) where the light reflected by the curved portion (31, 51) enters, characterized in that part of the inclined portion is inclined with respect to the main-scan direction at an angle a > 0 to an opposite side of a side where the linear portion (36, 56) is adapted to emit the light to the object to be read, wherein the inclined portion is inclined from a boundary portion (33, 53) or from a position near the boundary portion (33, 53) in a direction to the linear portion, and the boundary portion (33, 53) is a boundary of the curved portion (31, 51) and the linear portion (36, 56).
A method of optimizing the electric power generation of a wind turbine, said wind turbine comprising a nacelle provided with a rotor to which blades are fastened, and an electric machine connected to said rotor by a transmission, wherein an angle of inclination of said blades is controlled, characterized in that it comprises the following stages: a) determining an aerodynamic torque setpoint and an electric machine torque setpoint allowing to maximize the recovered power, from wind speed, rotor speed and electric machine speed measurements, b) modifying at least one of said setpoints by subtracting therefrom a term proportional to a difference between measured rotor speed and measured electric machine speed, c) determining an angle of inclination of the blades allowing said aerodynamic torque setpoint to be achieved, d) orienting the blades at said angle of inclination. a) determining an aerodynamic torque setpoint and an electric machine torque setpoint allowing to maximize the recovered power, from wind speed, rotor speed and electric machine speed measurements, b) modifying at least one of said setpoints by subtracting therefrom a term proportional to a difference between measured rotor speed and measured electric machine speed, c) determining an angle of inclination of the blades allowing said aerodynamic torque setpoint to be achieved, d) orienting the blades at said angle of inclination.
A method for immobilizing arsenic, the method comprising: adding an alkaline solution and an oxidizing agent to a copper-arsenic-containing substance, and thereby carrying out an oxidizing leaching; separating a leach residue by solid-liquid separation; adding calcium hydroxide to a recovered alkaline arsenate solution to generate calcium arsenate; and adding the recovered calcium arsenate to a glass-forming material containing iron, silica and alkaline components so that an iron/silica weight ratio is in a range of 0.5 to 0.9 and an amount of alkaline components is in a range of 14 wt% to 26 wt%, and thereby incorporating the calcium arsenate into a glass solidified body to produce an arsenic-containing glass solidified body, wherein a concentration of arsenic contained in the arsenic-containing glass solidified body is in a range of 5 wt% to 15 wt%. adding an alkaline solution and an oxidizing agent to a copper-arsenic-containing substance, and thereby carrying out an oxidizing leaching; separating a leach residue by solid-liquid separation; adding calcium hydroxide to a recovered alkaline arsenate solution to generate calcium arsenate; and adding the recovered calcium arsenate to a glass-forming material containing iron, silica and alkaline components so that an iron/silica weight ratio is in a range of 0.5 to 0.9 and an amount of alkaline components is in a range of 14 wt% to 26 wt%, and thereby incorporating the calcium arsenate into a glass solidified body to produce an arsenic-containing glass solidified body, wherein a concentration of arsenic contained in the arsenic-containing glass solidified body is in a range of 5 wt% to 15 wt%.
A pilot signal transmission method, comprising: determining, by user equipment, UE, a single physical resource block, PRB, pair for an uplink subframe of a transport channel, wherein the transport channel is used for transmission of uplink data; adding, by the UE, pilot signals to single carrier frequency division multiple access, SC-FDMA, symbols of the PRB pair, wherein a quantity of SC-FDMA symbols of the PRB pair to carry pilot signals is greater than 2; and sending, by the UE, the PRB pair to a base station, characterized in that a quantity of subcarriers of the PRB pair is 6, the quantity of pilot SC-FDMA symbols of the PRB pair is 28, where the PRB pair includes two slots, and each slot is corresponding to 14 pilot SC-FDMA symbols, and the quantity of SC-FDMA symbols of the PRB pair carrying pilot signals is 4, the SC-FDMA symbols of the PRB pair to carry pilot signals are a 7 th, an 8 th, a 21 st, and a 22 nd SC-FDMA symbols of the PRB pair, and the pilot signals include a non-zero power pilot signal and a zero power pilot signal in each slot, the method further comprises acquiring (1003a, 1003b), by the UE, configuration information of the zero power pilot signal and of the non-zero power pilot signal by using higher layer signaling, physical layer signaling, or a cell identity ID, so that an average power spectrum density of the PRB pair of which the quantity of subcarriers is 6 is increased compared with the PRB pair of which the quantity of subcarriers is 12, and wherein a total quantity of resource elements, REs, in the PRB pair is 168. determining, by user equipment, UE, a single physical resource block, PRB, pair for an uplink subframe of a transport channel, wherein the transport channel is used for transmission of uplink data; adding, by the UE, pilot signals to single carrier frequency division multiple access, SC-FDMA, symbols of the PRB pair, wherein a quantity of SC-FDMA symbols of the PRB pair to carry pilot signals is greater than 2; and sending, by the UE, the PRB pair to a base station, characterized in that a quantity of subcarriers of the PRB pair is 6, the quantity of pilot SC-FDMA symbols of the PRB pair is 28, where the PRB pair includes two slots, and each slot is corresponding to 14 pilot SC-FDMA symbols, and the quantity of SC-FDMA symbols of the PRB pair carrying pilot signals is 4, the SC-FDMA symbols of the PRB pair to carry pilot signals are a 7 th, an 8 th, a 21 st, and a 22 nd SC-FDMA symbols of the PRB pair, and the pilot signals include a non-zero power pilot signal and a zero power pilot signal in each slot, the method further comprises acquiring (1003a, 1003b), by the UE, configuration information of the zero power pilot signal and of the non-zero power pilot signal by using higher layer signaling, physical layer signaling, or a cell identity ID, so that an average power spectrum density of the PRB pair of which the quantity of subcarriers is 6 is increased compared with the PRB pair of which the quantity of subcarriers is 12, and wherein a total quantity of resource elements, REs, in the PRB pair is 168.
Rechargeable battery comprising at least an electrolyte layer, a cathode layer and an anode layer; the electrolyte layer comprising a lithium salt compound arranged between a cathode surface of the cathode layer and an anode surface of the anode layer; the anode layer being a nanostructured thin film layer comprising a plurality of adjacent columns, the columns extending in a perpendicular direction from the anode surface and are elongated in the perpendicular direction, wherein the adjacent columns are separated by column boundaries extending in the perpendicular direction; wherein the columns comprise silicon with an amorphous structure in which nano-crystalline regions exist, and characterized in that the nanostructured thin film layer has a porosity of 30% to 60%.
A medical drainage tube for treatment of wounds by means of a negative pressure generated by a medical suction apparatus, wherein the drainage tube is formed with multiple lumen and has a suction tube with at least one suction lumen and at least one ventilation lumen, characterized in that the outer wall of the ventilation lumen, has a radial ventilation opening which is spaced-apart from a suction connector, and that a ventilation sleeve is disposed in that place in such a manner that it coaxially tightly surrounds the suction tube, an annular groove, which communicates with the ventilation opening, being disposed in the inner wall of said ventilation sleeve, said annular groove communicating in turn with a bacterial filter undetachably disposed in a filter compartment in the wall of the ventilation sleeve, said bacterial filter being connected to the atmosphere by way of an air inlet opening, wherein the part of the ventilation lumen leading from the annular space to the proximal end of the suction tube is sealed off.
A recording media comprising a raw base wherein said media encompasses, on its image side, a pigmented pre-coating layer and a non-polyolefin barrier coating and, on its backside, a polymeric barrier layer; wherein said media is a printable media including a liquid electrophotographic printing image receiving layer that is applied over the non-polyolefin barrier coating, on the image-side of said printable media.
A curable fluoroelastomer composition comprising: A) peroxide curable fluoroelastomer; B) 8 to 25 parts by weight, per hundred parts by weight fluoroelastomer, of carbon black having a nitrogen adsorption specific surface area of 25-130 m 2 /g and a dibutyl phthalate absorption of 50-140 ml/100g; C) 0.1 to 8 parts by weight, per hundred parts by weight fluoroelastomer, of a plasticizer having at least one carbon-carbon double bond and at least one ester group; D) 0.25 to 2 parts by weight, per hundred parts by weight fluoroelastomer, of organic peroxide; and E) 0.3 to 1.3 parts by weight, per hundred parts by weight fluoroelastomer, of a multifunctional coagent. A) peroxide curable fluoroelastomer; B) 8 to 25 parts by weight, per hundred parts by weight fluoroelastomer, of carbon black having a nitrogen adsorption specific surface area of 25-130 m 2 /g and a dibutyl phthalate absorption of 50-140 ml/100g; C) 0.1 to 8 parts by weight, per hundred parts by weight fluoroelastomer, of a plasticizer having at least one carbon-carbon double bond and at least one ester group; D) 0.25 to 2 parts by weight, per hundred parts by weight fluoroelastomer, of organic peroxide; and E) 0.3 to 1.3 parts by weight, per hundred parts by weight fluoroelastomer, of a multifunctional coagent.
An imaging system comprising: a first light source configured to project light having a first wavelength onto a vehicle occupant; a second light source configured to project light having a second wavelength different from the first wavelength onto the vehicle occupant; an imager comprising a lens operable between a plurality of fields of view; based on the activation of a respective one of the light sources (18, 20) and operation of the imager with a respective one of the plurality of fields of view (38, 40), the plurality of fields of view including a first field of view associated with activation of only the first light source and a second field of view associated with activation of only the second light source, the imager is configured to acquire one or more images of a biometric feature of the vehicle occupant; and a controller configured to: execute an iris scanning function by activating only the first light source and processing the images acquired by the imager while operating with the first field of view; and execute a driver monitoring function by activating only the second light source and processing the images acquired by the imager while operating with the second field of view. a first light source configured to project light having a first wavelength onto a vehicle occupant; a second light source configured to project light having a second wavelength different from the first wavelength onto the vehicle occupant; an imager comprising a lens operable between a plurality of fields of view; based on the activation of a respective one of the light sources (18, 20) and operation of the imager with a respective one of the plurality of fields of view (38, 40), the plurality of fields of view including a first field of view associated with activation of only the first light source and a second field of view associated with activation of only the second light source, the imager is configured to acquire one or more images of a biometric feature of the vehicle occupant; and a controller configured to: execute an iris scanning function by activating only the first light source and processing the images acquired by the imager while operating with the first field of view; and execute a driver monitoring function by activating only the second light source and processing the images acquired by the imager while operating with the second field of view. execute an iris scanning function by activating only the first light source and processing the images acquired by the imager while operating with the first field of view; and execute a driver monitoring function by activating only the second light source and processing the images acquired by the imager while operating with the second field of view.
Method for the gapless assembly injection molding of two components, comprising the following steps: - injection molding a first, outer component, - forming a free space at the first, outer component on the rear side of a wall, a second component being injection molded against the front side thereof, - injection molding the second component under pressure against the wall, the wall being elastically deformed towards the free space by the pressure, - shrinking the second component by cooling, - causing the elastically deformed wall to spring back towards the second component. - injection molding a first, outer component, - forming a free space at the first, outer component on the rear side of a wall, a second component being injection molded against the front side thereof, - injection molding the second component under pressure against the wall, the wall being elastically deformed towards the free space by the pressure, - shrinking the second component by cooling, - causing the elastically deformed wall to spring back towards the second component.
An air conditioning system comprising one or more outdoor units; one or more indoor units connected to an outdoor unit via a refrigerant pipe and configured to perform air conditioning; and a pipe communication apparatus coupled to the refrigerant pipe and configured to transfer data back and forth between the outdoor unit and the indoor unit via the refrigerant pipe; characterized in that the pipe communication apparatus is configured to transfer data using a low frequency signal.
Two-component composition comprising a first component and a second component, wherein the first component being a non-aqueous resin composition comprising an unsaturated polyester resin or vinyl ester resin, a. a transition metal compound selected from a copper, iron, manganese or titanium compound, b. a potassium compound, and the resin composition contains less than 0,01 mmol cobalt per kg primary resin system and less than 0,01 mmol vanadium per kg primary resin system; and the second component comprises a peroxide compound, whereby the primary resin system consists of the unsaturated polyester resin or vinyl ester resin, any additive present therein, except for the peroxide, soluble in the resin, and styrene and/or other solvents present therein. a. a transition metal compound selected from a copper, iron, manganese or titanium compound, b. a potassium compound, and
A phenotyping device for measuring phenotypic traits of one or more plants in a target canopy comprises: - one or more shafts (110, 210, 310, 410, 610a, 610b, 610c) arranged, when the phenotyping device is moved, to move parallel to a surface of a ground and partly in contact with the target canopy for revealing the one or more plants for imaging in the target canopy; - one or more camera units (150, 250, 350, 550, 650); - a means for controlling the angle and the distance of the one or more camera units (150, 250, 350, 550, 650) in relation to the one or more shafts (110, 210, 310, 410, 610a, 610b, 610c) arranged to maintain the position and orientation of the one or more camera units fixed relative to the shaft; - an electronic control unit for controlling the camera unit. - one or more shafts (110, 210, 310, 410, 610a, 610b, 610c) arranged, when the phenotyping device is moved, to move parallel to a surface of a ground and partly in contact with the target canopy for revealing the one or more plants for imaging in the target canopy; - one or more camera units (150, 250, 350, 550, 650); - a means for controlling the angle and the distance of the one or more camera units (150, 250, 350, 550, 650) in relation to the one or more shafts (110, 210, 310, 410, 610a, 610b, 610c) arranged to maintain the position and orientation of the one or more camera units fixed relative to the shaft; - an electronic control unit for controlling the camera unit.
An ion mobility spectrometer having an ion source and a device for generating ammonia gas, characterized in that the device comprises a dopant reservoir filled with at least one of alkali metal nitride and alkaline earth metal nitride, said reservoir being fluidly coupled to the ion source and to a water reservoir.
A multi-layer structure comprising: (a) a skin layer comprising at least 50% by weight of an ethylene/α-olefin interpolymer composition (LLDPE) having a Comonomer Distribution Constant in the range of from 45 to 400, and wherein the skin layer does not contain any migratory additive; (b) a metal layer disposed on the skin layer to form a metalized film having an optical density from 2.0 to 2.8; and (c) at least one substrate layer laminated onto the metalized film; wherein the ethylene/α-olefin interpolymer composition comprises (i) less than or equal to 100 percent by weight of the units derived from ethylene; and (ii) less than 30 percent by weight of units derived from one or more α-olefin comonomers. (a) a skin layer comprising at least 50% by weight of an ethylene/α-olefin interpolymer composition (LLDPE) having a Comonomer Distribution Constant in the range of from 45 to 400, and wherein the skin layer does not contain any migratory additive; (b) a metal layer disposed on the skin layer to form a metalized film having an optical density from 2.0 to 2.8; and (c) at least one substrate layer laminated onto the metalized film; wherein the ethylene/α-olefin interpolymer composition comprises (i) less than or equal to 100 percent by weight of the units derived from ethylene; and (ii) less than 30 percent by weight of units derived from one or more α-olefin comonomers.
Viscoelastic gels and hydrogels made of autocrosslinked hyaluronic acid mixed with hyaluronic acid crosslinked with 1,4-butanediol diglycidyl ether, BDDE in a weight ratio from 5:95 to 50:50, for use in ophthalmic surgery as antifibrotic gels.
Electronic parking brake system of a motor vehicle, comprising a brake actuator which can be moved to a braking position in order to act upon a wheel of the motor vehicle with a braking force, a manually operated actuating element for a user to control the brake actuator, a control unit that communicates electronically with the actuating element for actuating a control valve connected to the brake actuator, wherein the control unit comprises an interface for communicating with an external control system which comprises sensors and/or actors that define the operating condition of the motor vehicle as well as computation instructions for evaluating a data packet sent by the control system for actuating the brake actuator of the parking brake system when the data packet is evaluated correspondingly, characterised in that the motor vehicle comprises a tractor and a trailer, and by way of the external control system via the control unit, independently of one another, a service brake of the trailer which is part of the parking brake system and a parking brake of the tractor which is part of the parking brake system can be actuated.