mhurhangee/ep-ind-claims huggingface dataset:
Method for operating a wind turbine comprising a rotor which has multiple rotor blades which are settable with respect to blade angle and has a means for detection of formation of ice on the rotor blades, wherein the blade-angle setting is realized during normal operation on the basis of a standard characteristic curve in a manner dependent on a characteristic number that can be ascertained during the operation of the wind turbine (step 90), and is realized in the case where formation of ice is detected (step 95) according to the following steps: a) operating the wind turbine on the basis of an initial special characteristic curve for the blade angles of a rotor blade or of all the rotor blades in a manner dependent on a characteristic number that can be ascertained during the operation of the wind turbine (step 100); b) recording a first power curve for a specified period of time (step 105); c) changing the special characteristic curve (step 110); d) recording a further power curve for a specified period of time (step 115); and e) checking whether the last ascertained further power curve represents an optimum (step 125): - if so, operating the wind turbine on the basis of the optimum special characteristic curve on which the last ascertained further power curve is based; - if not, iterating from step c), characterized in that, after ascertaining the optimum special characteristic curve (step 130) for one rotor blade, steps a) to e) are repeated one after the other for the further rotor blades. a) operating the wind turbine on the basis of an initial special characteristic curve for the blade angles of a rotor blade or of all the rotor blades in a manner dependent on a characteristic number that can be ascertained during the operation of the wind turbine (step 100); b) recording a first power curve for a specified period of time (step 105); c) changing the special characteristic curve (step 110); d) recording a further power curve for a specified period of time (step 115); and e) checking whether the last ascertained further power curve represents an optimum (step 125): - if so, operating the wind turbine on the basis of the optimum special characteristic curve on which the last ascertained further power curve is based; - if not, iterating from step c), - if so, operating the wind turbine on the basis of the optimum special characteristic curve on which the last ascertained further power curve is based; - if not, iterating from step c),
Use of a poly (ADP-ribose) polymerase (PARP) inhibitor in the manufacture of a medicament for use in a method of treatment of cancer deficient in HR dependent DNA DSB repair pathway in an individual, wherein the PARP inhibitor is formulated in a capsule, cachet or tablet for oral administration.
A parallel heat-pipes type heat sink, comprising: a base, having a bottom surface, a plurality of parallel heated areas concavely formed on the bottom surface, a protrusion disposed between any two heated areas and protruding in a direction towards the bottom surface, and a notch formed at any one section of each protrusion, each protrusion comprising a first top portion and a second top portion which have a height difference therebetween, side surfaces of the first top portion and an upper surface of the second top portion, which are located between and connected to two upper edges of the adjacent heated areas, together form the notch; and a plurality of heat pipes, embedded into the heated areas respectively in the lengthwise direction of each heat pipe, wherein each of the heat pipes has at least one deformation portion, the deformation portions of the heat pipes which are adjacent to each other are in contact with each other so as to fill the notches. a base, having a bottom surface, a plurality of parallel heated areas concavely formed on the bottom surface, a protrusion disposed between any two heated areas and protruding in a direction towards the bottom surface, and a notch formed at any one section of each protrusion, each protrusion comprising a first top portion and a second top portion which have a height difference therebetween, side surfaces of the first top portion and an upper surface of the second top portion, which are located between and connected to two upper edges of the adjacent heated areas, together form the notch; and a plurality of heat pipes, embedded into the heated areas respectively in the lengthwise direction of each heat pipe, wherein each of the heat pipes has at least one deformation portion, the deformation portions of the heat pipes which are adjacent to each other are in contact with each other so as to fill the notches.
A semiconductor device comprising: a base substrate; a pattern on the base substrate, • wherein each of the base substrate and the pattern is formed of silicon carbide; • wherein the pattern vertically protrudes from the base substrate; the protruding shape being an elliptical cone shape; • wherein the elliptical cone shape has a long axis diameter of 10 to 30 nm and a height of 100 nm or less; a buffer layer on the base substrate; and an epitaxial layer on the buffer, wherein the pattern is a self-assembled pattern, wherein the buffer layer is laterally grown between the patterns, wherein the buffer layer is horizontally grown on only one surface of the base substrate exposed between the patterns to fill a space between the patterns. a base substrate; a pattern on the base substrate, • wherein each of the base substrate and the pattern is formed of silicon carbide; • wherein the pattern vertically protrudes from the base substrate; the protruding shape being an elliptical cone shape; • wherein the elliptical cone shape has a long axis diameter of 10 to 30 nm and a height of 100 nm or less; • wherein each of the base substrate and the pattern is formed of silicon carbide; • wherein the pattern vertically protrudes from the base substrate; the protruding shape being an elliptical cone shape; • wherein the elliptical cone shape has a long axis diameter of 10 to 30 nm and a height of 100 nm or less; a buffer layer on the base substrate; and an epitaxial layer on the buffer, wherein the pattern is a self-assembled pattern, wherein the buffer layer is laterally grown between the patterns, wherein the buffer layer is horizontally grown on only one surface of the base substrate exposed between the patterns to fill a space between the patterns.
A method for forming a naked collation package comprising: a. providing an arrangement of packages individually wrapped in a filmic material; b. providing a naked collation film for nakedly wrapping said individually wrapped packages, the naked collation film comprising a polyolefinic core layer C, an inner sealing layer A on the inner surface of the naked collation film and a polyolefinic outer sealing layer B on the outer surface of the naked collation film, the material of the inner sealing layer A being resistant to sealing with the filmic material of the individually wrapped packages under a specified sealing condition and heat shrinking condition, and the polyolefinic material of the outer sealing layer B being capable of sealing with B and with A under the specified sealing condition, wherein layers A and B are formed of different materials and layer B comprises at least one polyolefinic polymer and an antiblock component comprising 1 to 2% by weight of the layer of silicone; c. arranging the individually wrapped packages in an ordered configuration; d. arranging the naked collation film such that it at least partially surrounds, although is not necessarily in contact with, the ordered configuration of individually wrapped packages; and e. heat shrinking the naked collation film by exposing it to the heat shrinking condition, causing the naked collation film to shrink and closely surround the arrangement of packages, without being sealed to the packages; wherein the naked collation film exhibits a wide angle haze and / or a narrow angle haze of 3.0% or lower. a. providing an arrangement of packages individually wrapped in a filmic material; b. providing a naked collation film for nakedly wrapping said individually wrapped packages, the naked collation film comprising a polyolefinic core layer C, an inner sealing layer A on the inner surface of the naked collation film and a polyolefinic outer sealing layer B on the outer surface of the naked collation film, the material of the inner sealing layer A being resistant to sealing with the filmic material of the individually wrapped packages under a specified sealing condition and heat shrinking condition, and the polyolefinic material of the outer sealing layer B being capable of sealing with B and with A under the specified sealing condition, wherein layers A and B are formed of different materials and layer B comprises at least one polyolefinic polymer and an antiblock component comprising 1 to 2% by weight of the layer of silicone; c. arranging the individually wrapped packages in an ordered configuration; d. arranging the naked collation film such that it at least partially surrounds, although is not necessarily in contact with, the ordered configuration of individually wrapped packages; and e. heat shrinking the naked collation film by exposing it to the heat shrinking condition, causing the naked collation film to shrink and closely surround the arrangement of packages, without being sealed to the packages; wherein the naked collation film exhibits a wide angle haze and / or a narrow angle haze of 3.0% or lower.
A variable heat conductor (8/8a) to facilitate rapid warming of an electronic device, comprising: a first major body (20/30a) being made from a first material; a second major body (30/20a) contacting the first major body (20/30a), the second major body (30/20a) being made from the first material; and an expansion material (40/40a) being anchored to the first major body (20/30a), a distal end of the expansion material (40/40a) and an inner surface of the second major body (30/20a) defining a gap (G1/G4), the expansion material (40/40a) being made from a second material, the second material having a higher rate of thermal expansion than the first material, the variable heat conductor (8/8a) positioned between the electronic device and the heat sink, and allowing heat transmission from the electronic device to the heat sink when the gap (G1/G4) is closed, characterized in that the length of the gap (G1/G4) corresponds to an expected length of thermal expansion of the expansion material, and the expected length of thermal expansion is a length of growth of the expansion material (40/40a) between a start-up temperature and a desired temperature set-point of the electronic device. a first major body (20/30a) being made from a first material; a second major body (30/20a) contacting the first major body (20/30a), the second major body (30/20a) being made from the first material; and an expansion material (40/40a) being anchored to the first major body (20/30a), a distal end of the expansion material (40/40a) and an inner surface of the second major body (30/20a) defining a gap (G1/G4), the expansion material (40/40a) being made from a second material, the second material having a higher rate of thermal expansion than the first material, the variable heat conductor (8/8a) positioned between the electronic device and the heat sink, and allowing heat transmission from the electronic device to the heat sink when the gap (G1/G4) is closed, characterized in that the length of the gap (G1/G4) corresponds to an expected length of thermal expansion of the expansion material, and the expected length of thermal expansion is a length of growth of the expansion material (40/40a) between a start-up temperature and a desired temperature set-point of the electronic device.
A connection method between speech communication terminals, comprising: a first speech communication terminal stating a plurality of speech codec modes in a Session Description Protocol, SDP, offer, and transmitting the SDP offer to a second speech communication terminal; and the second speech communication terminal selecting and stating, in an SDP answer, a plurality of modes supported by the second speech communication terminal from among the speech codecs stated in the SDP offer, and transmitting the SDP answer to the first speech communication terminal; characterized by connecting the first speech communication terminal and the second speech communication terminal on a single bearer, and in that at least one of the SDP offer and the SDP answer states a request for a bandwidth of a mode of highest priority from among the speech codec modes stated in the SDP answer, a time stamp included in an Real-Time transport protocol, RTP, packet of encoded speech data is given based on a clock rate common to the speech codec modes supported by the second speech communication terminal, and if switching the speech codec or the speech codec mode is needed, switching the speech codec or the speech codec mode without changing the clock rate, by specifying a payload type, PT, number assigned to the speech codec or speech codec mode after the switch in the payload type field of an RTP header. a first speech communication terminal stating a plurality of speech codec modes in a Session Description Protocol, SDP, offer, and transmitting the SDP offer to a second speech communication terminal; and the second speech communication terminal selecting and stating, in an SDP answer, a plurality of modes supported by the second speech communication terminal from among the speech codecs stated in the SDP offer, and transmitting the SDP answer to the first speech communication terminal; characterized by connecting the first speech communication terminal and the second speech communication terminal on a single bearer, and in that at least one of the SDP offer and the SDP answer states a request for a bandwidth of a mode of highest priority from among the speech codec modes stated in the SDP answer, a time stamp included in an Real-Time transport protocol, RTP, packet of encoded speech data is given based on a clock rate common to the speech codec modes supported by the second speech communication terminal, and if switching the speech codec or the speech codec mode is needed, switching the speech codec or the speech codec mode without changing the clock rate, by specifying a payload type, PT, number assigned to the speech codec or speech codec mode after the switch in the payload type field of an RTP header.
A sensor assembly for detecting transparent objects in a monitoring area, having a sensor at a first edge of the monitoring area and having a reflector at a second edge of the monitoring area opposite the first edge, the sensor having a transmitter emitting transmitted light beams, a receiver with a receiving aperture and an evaluation unit for evaluating received signals from the receiver, characterised in that the sensor assembly is a two-line retro-reflective light barrier (la), the transmitter and the receiver being arranged at a distance from one another, in that the sensor assembly is a two-line retro-reflective light barrier (la), the transmitter and the receiver being arranged at a distance next to one another, a transmitting optical system being assigned to the transmitter and a receiving optical system arranged at a distance from the transmitting optical system being assigned to the receiver, in that the reflector is designed as a beam-dividing reflector, wherein transmitted light beams impinging on the beam-dividing reflector are reflected as received light beams (4a, 4b) are reflected at the beam-dividing reflector in such a way that the received light beams (4a, 4b) are divided into two partial beams which each have an angular offset relative to the transmitted light beams, in that the beam-dividing reflector has a triple assembly with an entrance surface which has a roof structure, the triple assembly being adapted to the roof structure, and wherein the transmitted light beams impinging on the entry surface enter the triple assembly and are reflected on reflection surfaces of a triple, so that the transmitted light beams impinging on the entry surface are refracted at the roof structure in such a way that the reflected received light beams (4a, 4b) are divided into two partial beams, and that the beam-dividing reflector is positioned relative to the sensor in such a way that when the monitoring area is free, a partial beam is guided onto the receiver.
A process for incorporating additives to feeds, such additives being medicinal materials, by the application of a mixture comprising medicinal material and an adjuvant compound on the surface of the feed, said mixture being obtained by the suspension in the air of the medicinal material, in the form of powder or granulate, and the liquid adjuvant compound, in the form of droplets or mist, the process being characterised in that medicinal material is continuously introduced into a suction chamber housing a rotating impeller which aspirates the medicinal material, stirs it and causes the cited suspension in the air, the suction chamber being provided with a lower outlet through which the suspended medicinal material leaves the chamber, and in that the mixture is continuously produced and as it is obtained the mixture is immediately applied on the feed.
A dual-energy material identification method with under-sampling, comprising steps of: CT scanning an object under inspection with ray beams at a first energy level to obtain projection data at respective angles at the first energy level, and reconstructing a CT image of the object; CT scanning the object with ray beams at a second energy level to obtain projection data at a part of the respective angles at the second energy level; combining the projection data at the first and second energy levels to obtain dual-energy under-sampled data at the part of the respective angles; acquiring a photoelectric coefficient integral value and a Compton coefficient integral value from the dual-energy under-sampled data; segmenting the CT image of the object into a plurality of regions and computing a length by which the dual-energy rays cross each of the regions (S12, S13); computing the photoelectric coefficient and the Compton coefficient by way of dual-energy preprocessing dual-effect decomposition reconstruction method, based on the lengths of the rays crossing the regions, the photoelectric coefficient integral value and the Compton coefficient integral value (S14, S15); computing at least atomic number of material in each of the regions based on the photoelectric coefficient and the Compton coefficient; and identifying the material of the object based on at least the atomic number. CT scanning an object under inspection with ray beams at a first energy level to obtain projection data at respective angles at the first energy level, and reconstructing a CT image of the object; CT scanning the object with ray beams at a second energy level to obtain projection data at a part of the respective angles at the second energy level; combining the projection data at the first and second energy levels to obtain dual-energy under-sampled data at the part of the respective angles; acquiring a photoelectric coefficient integral value and a Compton coefficient integral value from the dual-energy under-sampled data; segmenting the CT image of the object into a plurality of regions and computing a length by which the dual-energy rays cross each of the regions (S12, S13); computing the photoelectric coefficient and the Compton coefficient by way of dual-energy preprocessing dual-effect decomposition reconstruction method, based on the lengths of the rays crossing the regions, the photoelectric coefficient integral value and the Compton coefficient integral value (S14, S15); computing at least atomic number of material in each of the regions based on the photoelectric coefficient and the Compton coefficient; and identifying the material of the object based on at least the atomic number.
A nonaqueous electrolyte secondary battery comprising: an electrode assembly including a positive electrode, a separator and a negative electrode, the negative electrode including a negative current collector, a negative active material layer, containing a negative active material, formed on the surface of the current collector, and a coat, derived from an oxalato complex component, being provided on at least part of the surface of the negative active material layer; a nonaqueous electrolyte containing a crown ether for forming a complex with a sodium ion; and a battery case housing the electrode assembly and the nonaqueous electrolyte, wherein the formula 0 < A/X ≤2.0 is satisfied, when the number of moles of sodium ions that leach into the nonaqueous electrolyte from the electrode assembly is assigned a value of X moles, and the number of moles of crown ether contained in the nonaqueous electrolyte is assigned a value of A moles. an electrode assembly including a positive electrode, a separator and a negative electrode, the negative electrode including a negative current collector, a negative active material layer, containing a negative active material, formed on the surface of the current collector, and a coat, derived from an oxalato complex component, being provided on at least part of the surface of the negative active material layer; a nonaqueous electrolyte containing a crown ether for forming a complex with a sodium ion; and a battery case housing the electrode assembly and the nonaqueous electrolyte, wherein
A rotor blade shell for a rotor blade of a wind turbine, including: - a rotor blade shell body having a recess surrounding an interior space of the rotor blade and including an outer side facing away from the interior space, - an overvoltage protection device having a first connection and a second connection, characterized in that the overvoltage protection device is completely arranged within the recess and is electrically contactable from the interior space or the outer side of the rotor blade shell. - a rotor blade shell body having a recess surrounding an interior space of the rotor blade and including an outer side facing away from the interior space, - an overvoltage protection device having a first connection and a second connection, characterized in that the overvoltage protection device is completely arranged within the recess and is electrically contactable from the interior space or the outer side of the rotor blade shell.
A thermally reversible adhesive composition comprising a) a copolymer of i) a conjugated diene acrylate or methacrylate, wherein the conjugated diene acrylate or methacrylate is furfuryl methacrylate; and ii) at least one acrylic monomer; and b) a bismaleimide crosslinking agent; wherein the furfuryl methacrylate copolymer is present in the range of from 50 to 80 weight percent of the adhesive composition. a) a copolymer of i) a conjugated diene acrylate or methacrylate, wherein the conjugated diene acrylate or methacrylate is furfuryl methacrylate; and ii) at least one acrylic monomer; and i) a conjugated diene acrylate or methacrylate, wherein the conjugated diene acrylate or methacrylate is furfuryl methacrylate; and ii) at least one acrylic monomer; and b) a bismaleimide crosslinking agent; wherein the furfuryl methacrylate copolymer is present in the range of from 50 to 80 weight percent of the adhesive composition.