mhurhangee/ep-ind-claims huggingface dataset:
A multifunctional solar energy system, comprising: a converging system comprising at least one light-focusing refractive surface and one reflective surface, which is arranged below the light-focusing refractive surface along a solar incident direction; and two solar energy utilization devices (P1, P2) for absorbing and utilizing sunlight; characterised in that at least one of the reflective surface (s) and the two solar energy utilization devices (P1, P2) is movable and thus called as movable component, wherein the movable component can be moved out of the light path from where it is arranged or be directly removed, wherein the light path means a light path formed after sunlight is converged by the converging system; and in that if the reflective surface is movable, the two solar energy utilization devices (P1, P2) are respectively provided on the light paths formed before and after the reflective surface is moved, and in that if the reflective surface is fixed, the two solar energy utilization devices (P1,P2) are successively provided on the light path after the reflective surface, so that one of the two solar energy utilization devices (P1, P2) is placed onto the light path by moving the movable component. a converging system comprising at least one light-focusing refractive surface and one reflective surface, which is arranged below the light-focusing refractive surface along a solar incident direction; and two solar energy utilization devices (P1, P2) for absorbing and utilizing sunlight; characterised in that at least one of the reflective surface (s) and the two solar energy utilization devices (P1, P2) is movable and thus called as movable component, wherein the movable component can be moved out of the light path from where it is arranged or be directly removed, wherein the light path means a light path formed after sunlight is converged by the converging system; and in that if the reflective surface is movable, the two solar energy utilization devices (P1, P2) are respectively provided on the light paths formed before and after the reflective surface is moved, and in that if the reflective surface is fixed, the two solar energy utilization devices (P1,P2) are successively provided on the light path after the reflective surface, so that one of the two solar energy utilization devices (P1, P2) is placed onto the light path by moving the movable component.
A positive-working imageable element comprising a radiation absorbing compound and a substrate having a hydrophilic surface, and having on said substrate, in order: an inner layer composition comprising a predominant polymeric binder, and an ink receptive outer layer, provided that upon thermal imaging, the exposed regions of said element are removable by an alkaline developer, wherein said predominant polymeric binder has an acid number of at least 40 and is represented by the following Structure: - w - x - y - z - wherein A represents recurring units derived from one or more N-alkoxymethyl (alkyl)acrylamides or alkoxymethyl (alkyl)acrylates, B represents recurring units derived from one or more ethylenically unsaturated polymerizable monomers having a pendant cyano group, C represents recurring units derived from one or more ethylenically unsaturated polymerizable monomers having one or more carboxy, sulfonic acid, or phosphate groups, D represents recurring units derived from one or more ethylenically unsaturated polymerizable monomers other than those represented by A, B, and C, w is from 3 to 80 weight %, x is from 10 to 85 weight %, y is from 2 to 80 weight %, and z is from 10 to 85 weight %. an inner layer composition comprising a predominant polymeric binder, and an ink receptive outer layer, provided that upon thermal imaging, the exposed regions of said element are removable by an alkaline developer, wherein said predominant polymeric binder has an acid number of at least 40 and is represented by the following Structure: - w - x - y - z - wherein A represents recurring units derived from one or more N-alkoxymethyl (alkyl)acrylamides or alkoxymethyl (alkyl)acrylates, B represents recurring units derived from one or more ethylenically unsaturated polymerizable monomers having a pendant cyano group, C represents recurring units derived from one or more ethylenically unsaturated polymerizable monomers having one or more carboxy, sulfonic acid, or phosphate groups, D represents recurring units derived from one or more ethylenically unsaturated polymerizable monomers other than those represented by A, B, and C, w is from 3 to 80 weight %, x is from 10 to 85 weight %, y is from 2 to 80 weight %, and z is from 10 to 85 weight %. A represents recurring units derived from one or more N-alkoxymethyl (alkyl)acrylamides or alkoxymethyl (alkyl)acrylates, B represents recurring units derived from one or more ethylenically unsaturated polymerizable monomers having a pendant cyano group, C represents recurring units derived from one or more ethylenically unsaturated polymerizable monomers having one or more carboxy, sulfonic acid, or phosphate groups, D represents recurring units derived from one or more ethylenically unsaturated polymerizable monomers other than those represented by A, B, and C, w is from 3 to 80 weight %, x is from 10 to 85 weight %, y is from 2 to 80 weight %, and z is from 10 to 85 weight %.
A method comprising: receiving one or more wind speed measurements upstream of a wind turbine; determining an indication of a current wind speed at said wind turbine wherein said indication includes below rated wind speed or above rated wind speed; determining if wind speed is in an up transition region where the wind speed is transitioning from below rated wind speed to above rated wind speed, or a down transition region where the wind speed is transitioning from above rated wind speed to below rated wind speed, based on said received one or more wind speed measurements and said indication of said current wind speed; and initiating a boost action to generate additional power, if determined that said wind speed is in said up transition region or said down transition region. receiving one or more wind speed measurements upstream of a wind turbine; determining an indication of a current wind speed at said wind turbine wherein said indication includes below rated wind speed or above rated wind speed; determining if wind speed is in an up transition region where the wind speed is transitioning from below rated wind speed to above rated wind speed, or a down transition region where the wind speed is transitioning from above rated wind speed to below rated wind speed, based on said received one or more wind speed measurements and said indication of said current wind speed; and initiating a boost action to generate additional power, if determined that said wind speed is in said up transition region or said down transition region.
Motor vehicle, comprising a body and a drive train, wherein the drive train comprises a front axle, a rear axle, a drive unit and a transmission, wherein the drive unit is designed as a hybrid drive with an internal combustion engine and at least one electric machine, wherein the internal combustion engine is suppliable with fuel from at least one fuel tank, wherein the or each electric machine is suppliable with electric energy from at least one electric energy accumulator in the motor mode, and wherein the or each fuel tank and the or each electric energy accumulator are positioned in a common section of the body, characterized in that the internal combustion engine is arranged in a mid-engine arrangement to the rear of the front axle and in front of the rear axle and to the rear of the common section of the body, in which the or each fuel tank and the or each electric energy accumulator are positioned.
A vehicle control system configured to cause a vehicle to move to a road edge and stop, the vehicle control system comprising: a camera configured to take an image ahead of the vehicle; and a controller configured to control a steering device and a braking device of the vehicle so as to cause the vehicle to move to the road edge and stop based on the image ahead of the vehicle taken by the camera, wherein the controller is configured to detect a partitioning line (OL, BL) of a road and the road edge based on the image taken by the camera, characterized in that the controller is further configured to generate a pair of left and right virtual lines (IL L, IL R) extending from a side of the vehicle to a front of the vehicle along the partitioning line (OL, BL), configured to control the steering device so that the vehicle travels substantially in the middle of the pair of left and right virtual lines (IL L, IL R), configured to move a virtual line (IL L) closer to the road edge of the pair of left and right virtual lines (IL L, IL R) and fix the virtual line (IL L) closer to the road edge, and then move a virtual line (IL R) farther from the road edge of the pair of left and right virtual lines (IL L, IL R) to a position separated from the virtual line (IL L) closer to the road edge by a width of the vehicle and fix the virtual line (IL R) farther from the road edge to the position separated from the virtual line (IL L) closer to the road edge by the width of the vehicle, and configured to control the braking device so that the vehicle stops after fixing the pair of left and right virtual lines (IL L, IL R). a camera configured to take an image ahead of the vehicle; and a controller configured to control a steering device and a braking device of the vehicle so as to cause the vehicle to move to the road edge and stop based on the image ahead of the vehicle taken by the camera, wherein the controller is configured to detect a partitioning line (OL, BL) of a road and the road edge based on the image taken by the camera, configured to generate a pair of left and right virtual lines (IL L, IL R) extending from a side of the vehicle to a front of the vehicle along the partitioning line (OL, BL), configured to control the steering device so that the vehicle travels substantially in the middle of the pair of left and right virtual lines (IL L, IL R), configured to move a virtual line (IL L) closer to the road edge of the pair of left and right virtual lines (IL L, IL R) and fix the virtual line (IL L) closer to the road edge, and then move a virtual line (IL R) farther from the road edge of the pair of left and right virtual lines (IL L, IL R) to a position separated from the virtual line (IL L) closer to the road edge by a width of the vehicle and fix the virtual line (IL R) farther from the road edge to the position separated from the virtual line (IL L) closer to the road edge by the width of the vehicle, and configured to control the braking device so that the vehicle stops after fixing the pair of left and right virtual lines (IL L, IL R).
A cooler with a safety refrigerant and with an inner cooler-heat exchanger, consisting of a tube, which has one inner low-pressure channel, which is configured for connection to the suction side of a refrigerant compressor, and at least six, at most eight high-pressure channels (27a, 27b, 27c, 27d, 27e, 27f), which are configured for connection to the pressure side of the refrigerant compressor, wherein: a. the low-pressure channel has a substantially cylindrical cross-section, which defines an inner cross-sectional area, wherein the low-pressure channel is surrounded by a smooth, unribbed wall, b. the high-pressure channels (27a, 27b, 27c, 27d, 27e, 27f) are arranged around the low-pressure channel and are separated by radially arranged intermediate walls (29, 30), whereby the sum of their respective cross-sectional areas defines an outer cross-sectional area, and c. the inner cross-sectional area is larger than the outer cross-sectional area, whereby each high-pressure channel (27a, 27b, 27c, 27d, 27e, 27f) is delimited by one radially inner wall section, two radially directed wall sections (29, 30) and one radially outward wall section, whereby the part adjacent the channel (27a, 27b, 27c, 27d, 27e, 27f) of the radially inner wall section is longer than three times the radial wall sections (29, 30). a. the low-pressure channel has a substantially cylindrical cross-section, which defines an inner cross-sectional area, wherein the low-pressure channel is surrounded by a smooth, unribbed wall, b. the high-pressure channels (27a, 27b, 27c, 27d, 27e, 27f) are arranged around the low-pressure channel and are separated by radially arranged intermediate walls (29, 30), whereby the sum of their respective cross-sectional areas defines an outer cross-sectional area, and c. the inner cross-sectional area is larger than the outer cross-sectional area, whereby each high-pressure channel (27a, 27b, 27c, 27d, 27e, 27f) is delimited by one radially inner wall section, two radially directed wall sections (29, 30) and one radially outward wall section,
A flavour granule for a smoking article, the flavour granule comprising: a porous support material; a liquid flavourant; particles of plant material; and at least one binder. a porous support material; a liquid flavourant; particles of plant material; and at least one binder.
Antitheft locking device for vehicle wheels, comprising a cylindrical one-piece body and a blind bushing, the cylindrical one-piece body is provided at a first end with a male or female thread, depending on whether the device is made as a nut or as a bolt, respectively, and provided, at a second end opposite to the first end, with an axially extending cylindrical projection having a circular cross section and is surrounded by the blind bushing comprising a hollow body having a circular inner cross section and a non-circular outer cross section, characterized in that said bushing is an idly rotatable bushing rotatably engaged on said cylindrical projection.
A semiconductor device manufacturing method, comprising: forming a first insulating film on a front surface of a semiconductor substrate; forming a contact electrode in the first insulating film; forming a barrier layer that covers the contact electrode; forming a silicide layer that is connected to the contact electrode, in the first insulating film; thereafter forming (S3, S4, S5) a via hole toward the front surface from a back surface of the semiconductor substrate through etching while the first insulating film and the silicide layer serve as etching stopper layers; forming a second insulating film on a sidewall and a bottom surface of the via hole and on the back surface of the semiconductor substrate; etching the second insulating film to expose the silicide layer and the first insulating film in the via hole; and forming a through-hole electrode layer at the second insulating film on the sidewall of the via hole, the second insulating film on the back surface of the semiconductor substrate, the first insulating film on the bottom surface of the via hole, and the silicide layer, wherein a relationship between a width A of the silicide layer and a width B of a bottom of the via hole in a cross section taken along a plane including a center axis of the via hole satisfies A ≤ B. forming a first insulating film on a front surface of a semiconductor substrate; forming a contact electrode in the first insulating film; forming a barrier layer that covers the contact electrode; forming a silicide layer that is connected to the contact electrode, in the first insulating film; thereafter forming (S3, S4, S5) a via hole toward the front surface from a back surface of the semiconductor substrate through etching while the first insulating film and the silicide layer serve as etching stopper layers; forming a second insulating film on a sidewall and a bottom surface of the via hole and on the back surface of the semiconductor substrate; etching the second insulating film to expose the silicide layer and the first insulating film in the via hole; and forming a through-hole electrode layer at the second insulating film on the sidewall of the via hole, the second insulating film on the back surface of the semiconductor substrate, the first insulating film on the bottom surface of the via hole, and the silicide layer, wherein a relationship between a width A of the silicide layer and a width B of a bottom of the via hole in a cross section taken along a plane including a center axis of the via hole satisfies A ≤ B.
Electric scissors comprising a motor and a link mechanism, wherein a rotating motion of the motor is converted into a linear motion and the link mechanism is operated to open and close blades (11, 12) by the linear motion, the electric scissors comprising: a current control unit adapted to control an electric current value to be supplied to the motor; and a detection unit adapted to detect that an angle between the blades (11, 12) becomes a predetermined angle, characterized in that the current control unit changes an upper limit of the electric current value to be supplied to the motor in a condition that the detection unit detects that the angle between the blades (11, 12) becomes the predetermined angle, wherein the current control unit is configured to set the upper limit of the electric current value to be a first value from a state where the blades (11, 12) are opened to a state where the angle between the blades (11, 12) is the predetermined angle, and set the upper limit of the electric current value to be a second value, which is different from the first value, from the state where the angle between the blades (11, 12) is the predetermined angle to a state where the blades (11, 12) are closed. a current control unit adapted to control an electric current value to be supplied to the motor; and a detection unit adapted to detect that an angle between the blades (11, 12) becomes a predetermined angle, characterized in that the current control unit changes an upper limit of the electric current value to be supplied to the motor in a condition that the detection unit detects that the angle between the blades (11, 12) becomes the predetermined angle, wherein the current control unit is configured to set the upper limit of the electric current value to be a first value from a state where the blades (11, 12) are opened to a state where the angle between the blades (11, 12) is the predetermined angle, and set the upper limit of the electric current value to be a second value, which is different from the first value, from the state where the angle between the blades (11, 12) is the predetermined angle to a state where the blades (11, 12) are closed.
Use of a partially neutralized, anionic (meth)acrylate copolymer, consisting of free radical-polymerized units of 40 to 60% by weight of C 1 - to C 4 -alkyl esters of acrylic or of methacrylic acid and 60 to 40% by weight of (meth)acrylate monomers having an anionic group, more than 10 to 50% of the anionic groups contained being neutralized by means of a base, for the production of a pharmaceutical form having an active substance-containing core, which is coated with the partially neutralized, anionic (meth)acrylate copolymer and releases at least 30% of the active substance contained in 30 minutes at a pH at which the active substance is adequately soluble and stable and at which a corresponding pharmaceutical form which is coated with the un-neutralized anionic (meth)acrylate copolymer would release less than 10% of the active substance contained in 30 minutes, the coating of the pharmaceutical form being able to contain up to 30% by weight of further film-forming polymers which contain no or only insignificant amounts of ionic side groups.
Wheel brake, in particular drum brake, having a brake application device and having brake shoes (11, 12) and having an automatic adjustment device which has a pivotable adjustment lever having a positioning projection and an adjustment wheel which is engaged therewith, wherein the wheel brake has an automatic reversing unit which reduces or increases the brake action during backward travel and which has a pivot cam and an axially movable tappet which is connected to the adjustment wheel, characterized in that the engagement length (e) of the positioning projection on the adjustment wheel is shorter than the tappet travel (h) during backward travel.
A pharmaceutical composition for use in a method of treating heart disease, wherein the method comprises administering to a subject the composition comprising a therapeutically effective amount of a VIP having an N-terminal methionine increasing the preference of the VIP peptide for VPAC2 versus VPAC1 and the amino acid sequence of SEQ ID NO. 13 with the N-terminal His at position 2, and having an elastin-like peptide at the C-terminus, the ELP having from 75 to 130 units of VPGXG (SEQ ID NO:3) where the composition of X is 40% to 60% Val, 10% to 30% Ala, and 20% to 40% Gly.
A respiratory valve for a ventilator, comprising: an inhaling pipeline port, a patient end port, a pressure sampling port and a valve port; the respiratory valve further comprises a dual purpose port; the inhaling pipeline port, the patient end port, the pressure sampling port, the valve port and the dual purpose port are in communication with each other through a first cavity provided at the center of the respiratory valve; characterized in that the respiratory valve is configured to be selectively used with both a mechanical PEEP valve and a built-in electronic PEEP valve of a ventilator; the respiratory valve also comprising both a first valve cover for using the respiratory valve with the mechanical PEEP valve, and a second valve cover for using the respiratory valve with the built-in electronic PEEP valve of the ventilator, whereby, when the respiratory valve is to be used with the mechanical PEEP valve, the dual purpose port is connected to the mechanical PEEP valve, and the valve port is connected to the first valve cover, and when the respiratory valve is to be used with the built-in electronic PEEP valve of the ventilator, the dual purpose port is directly used as an exhalation port, and the valve port is connected to the second valve cover.
Panel structure element (10, 11, 12, 13) of a body of a commercial vehicle, in particular truck, trailer or semi-trailer, having a plurality of stand elements (19, 20, 51, 53), which are provided for reinforcing the panel structure element (10, 11, 12, 13), are aligned at least substantially transversely to the longitudinal direction of the panel structure element (10, 11, 12, 13), are arranged in the longitudinal direction of the panel structure element (10, 11, 12, 13) between the edges of the panel structure element (10, 11, 12, 13) and are spaced apart from one another, and having an, in particular closed, panel extending over at least substantially the entire length and at least substantially the entire height of the panel structure element (10, 11, 12, 13), wherein the panel is formed of at least one panel element, wherein the stand elements (19, 20, 51, 53) are connected to the panel, wherein the at least one panel element is formed of a composite laminate comprising at least two metal layers and at least one plastic layer provided between the at least two metal layers, wherein the panel has a plurality of panel elements arranged next to one another in the longitudinal direction of the panel structure element (10, 11, 12, 13), wherein the panel elements are connected to one another via connection regions (18, 37, 40, 42, 44, 46, 48) extending at least substantially transversely to the longitudinal direction of the panel structure element (10, 11, 12, 13), and wherein the stand elements (19, 20, 51, 53) are assigned at least partially to the connection regions (18, 37, 40, 42, 44, 46, 48) of the panel elements, characterised in that the stand elements (19, 20, 51, 53) are arranged covering and/or bridging at least partially the connection regions (18, 37, 40, 42, 44, 46, 48) of the panel elements.