mhurhangee/ep-ind-claims huggingface dataset:
A battery pack that is connectable to an electronic device, comprising: positive terminals (102a, 103a); negative terminals (102b, 103b); a cutting means for cutting a current that flows from a battery cell to the electronic device in a case where the current flowing from the battery cell to the electronic device exceeds a maximum current value; and a control means for changing the maximum current value to an initial value upon detecting that the battery pack is connected to the electronic device, wherein the initial value is equal to or smaller than a current value in a case in which one positive terminal (102a, 103a) and one negative terminal (102b, 103b) is connected to the electronic device, wherein the control means further changes the maximum current value, after changing the maximum current value to the initial value, based on the number of positive terminals and negative terminals that are connected to the electronic device. positive terminals (102a, 103a); negative terminals (102b, 103b); a cutting means for cutting a current that flows from a battery cell to the electronic device in a case where the current flowing from the battery cell to the electronic device exceeds a maximum current value; and a control means for changing the maximum current value to an initial value upon detecting that the battery pack is connected to the electronic device, wherein the initial value is equal to or smaller than a current value in a case in which one positive terminal (102a, 103a) and one negative terminal (102b, 103b) is connected to the electronic device, wherein the control means further changes the maximum current value, after changing the maximum current value to the initial value, based on the number of positive terminals and negative terminals that are connected to the electronic device.
Wire guiding element (100a, 100b, 100b', 100c, 100d, 100e, 100f), for guiding a wire to be wound in a wire winding machine (200, 300), or for feeding a solder wire in a soldering machine or a welding filler in the form of a wire in a welding machine, having an outer body (10a, 10b, 10b', 10c, 10d, 10e, 10f), in which a passage is formed for a wire, wherein the outer body (10a, 10b, 10b', 10c, 10d, 10e, 10f) is at least in sections variable in its shape, such that the shape of the passage also changes herein, characterised in that, the outer body has a plurality of adjustment elements, which, under the effect of an electrical voltage, an electrical current or a magnetic field as a physical regulating variable, change their shape, in particular, change their volumes, and wherein the outer body has means (34, 36) to selectively load the individual adjustment elements with the physical regulating variable electrical voltage, electrical current or magnetic field.
A method of precoding transmissions from a first device to a second device, said method comprising: receiving factorized precoder feedback from the second device indicating at least one of a recommended conversion precoder matrix and a recommended tuning precoder matrix that jointly represent a recommended precoder matrix that is a matrix multiplication of the recommended conversion and tuning precoder matrices, wherein said recommended conversion precoder matrix restricts the number of channel dimensions considered by said recommended tuning precoder matrix and said recommended tuning precoder matrix matches said recommended precoder matrix to an effective channel that is defined in part by said recommended conversion precoder matrix; determining a precoding operation based at least in part on evaluating said recommended precoder matrix; transmitting a precoded signal to the second device that is precoded according to said precoding operation; and characterized by maintaining one or more codebooks as a two-dimensional table of possible precoder matrices, wherein each row or column of said table corresponds to a particular one in a plurality of possible conversion precoder matrices and each column or row of said table corresponds to a particular one in a plurality of possible tuning precoder matrices, and wherein said factorized precoder feedback comprises at least one of a row index value and a column index value, for identifying a particular one of said possible precoder matrices in said table as said recommended precoder matrix. receiving factorized precoder feedback from the second device indicating at least one of a recommended conversion precoder matrix and a recommended tuning precoder matrix that jointly represent a recommended precoder matrix that is a matrix multiplication of the recommended conversion and tuning precoder matrices, wherein said recommended conversion precoder matrix restricts the number of channel dimensions considered by said recommended tuning precoder matrix and said recommended tuning precoder matrix matches said recommended precoder matrix to an effective channel that is defined in part by said recommended conversion precoder matrix; determining a precoding operation based at least in part on evaluating said recommended precoder matrix; transmitting a precoded signal to the second device that is precoded according to said precoding operation; and characterized by maintaining one or more codebooks as a two-dimensional table of possible precoder matrices, wherein each row or column of said table corresponds to a particular one in a plurality of possible conversion precoder matrices and each column or row of said table corresponds to a particular one in a plurality of possible tuning precoder matrices, and wherein said factorized precoder feedback comprises at least one of a row index value and a column index value, for identifying a particular one of said possible precoder matrices in said table as said recommended precoder matrix.
A bridge sleeve on which a print sleeve can be air-mounted, the bridge sleeve defining a through bore that has an axis of rotation and is open at each opposite end so that the bridge sleeve is air-mountable on a mandrel of a printing machine, the bridge sleeve comprising: a. an incompressible outer layer defining a hollow, cylindrically shaped member and a first end and a second end displaced axially from the first end, the incompressible outer layer further defining an outer surface extending axially between the two ends and configured for contacting the inner surface of a print sleeve; b. a first stabilizer at one end of the bridge sleeve and carrying the first end of the incompressible outer layer; c. a second stabilizer axially displaced from the first stabilizer and carrying the second end of the incompressible outer layer; d. each stabilizer (51, 52) includes a rigid outer shell that has an axially extending inner cavity that is partially defined by a rigid inner surface with a section defining an inner conical surface; e. each stabilizer (51, 52) includes a respective inner shell that is axially, moveably received within the respective axially extending inner cavity of the respective rigid outer shell, and wherein each respective inner shell defines a respective inner cylindrical contacting surface; and characterized in that f. the diameter of the respective inner cylindrical contacting surface is suitable to change as the respective inner shell moves axially relative to the respective rigid outer shell. a. an incompressible outer layer defining a hollow, cylindrically shaped member and a first end and a second end displaced axially from the first end, the incompressible outer layer further defining an outer surface extending axially between the two ends and configured for contacting the inner surface of a print sleeve; b. a first stabilizer at one end of the bridge sleeve and carrying the first end of the incompressible outer layer; c. a second stabilizer axially displaced from the first stabilizer and carrying the second end of the incompressible outer layer; d. each stabilizer (51, 52) includes a rigid outer shell that has an axially extending inner cavity that is partially defined by a rigid inner surface with a section defining an inner conical surface; e. each stabilizer (51, 52) includes a respective inner shell that is axially, moveably received within the respective axially extending inner cavity of the respective rigid outer shell, and wherein each respective inner shell defines a respective inner cylindrical contacting surface; and characterized in that f. the diameter of the respective inner cylindrical contacting surface is suitable to change as the respective inner shell moves axially relative to the respective rigid outer shell.
Use of keto C18 fatty acid(s) and/or keto C18 fatty acid ester(s), wherein the oxygen of the keto is positioned at the ninth or tenth carbon atom of a keto C18 acyl group of each keto C18 fatty acid or keto C18 fatty acid ester and wherein the carbon of the oxycarbonyl group of the acyl group is C1, as a drying promoter which accelerates the drying of an alkyd resin.
A method for regenerating carbonaceous adsorbent comprising the steps of: a) providing a carbonaceous adsorbent comprising a catalyst and adsorbed contaminants, b) pyrolysing of the adsorbed contaminants, c) reactivating the carbonaceous adsorbent by subjecting the carbonaceous adsorbent to steam thereby obtaining a reactivated carbonaceous adsorbent, d) cooling the thus obtained reactivated carbonaceous adsorbent to a temperature of less than 250°C and e) oxidizing catalyst that is in a reduced state following steps b) and c) comprised in the reactivated carbonaceous adsorbent. a) providing a carbonaceous adsorbent comprising a catalyst and adsorbed contaminants, b) pyrolysing of the adsorbed contaminants, c) reactivating the carbonaceous adsorbent by subjecting the carbonaceous adsorbent to steam thereby obtaining a reactivated carbonaceous adsorbent, d) cooling the thus obtained reactivated carbonaceous adsorbent to a temperature of less than 250°C and e) oxidizing catalyst that is in a reduced state following steps b) and c) comprised in the reactivated carbonaceous adsorbent.
A hard X-ray photoelectron spectroscopy (HAXPES) system, in particular a laboratory-based system, comprising: an X-ray tube providing a beam of photons, which via an X-ray monochromator is directed through the system so as to excite electrons from an illuminated sample, the X-ray tube being connected to a monochromator vacuum chamber in which a crystal is configured to monochromatize and focus the beam onto the sample, the illuminated sample being mounted on a manipulator, movable in at least one direction to allow for measurements at different sample angles, inside an analysis vacuum chamber, the analysis vacuum chamber being connected to an electron energy analyser, which is mounted onto the analysis vacuum chamber, characterised in that the monochromator vacuum chamber is connected to the analysis vacuum chamber via a flexible vacuum bellow, which is fixed to both vacuum chambers (45, 70), the flexibility of the bellow allowing alignment of the monochromatized and focused beam, a gap is provided between the X-ray tube and the monochromator vacuum chamber, which gap is provided with a first radiation trap (60, 62, 64) to shield the ambient from the radiation when the gap is illuminated with X-rays from the X-ray tube, the first radiation trap is of sufficient thickness to block the most energetic radiation emitted from the X-ray tube, comprising a first radiation wall part being affixed to a part of the vacuum vessel wall of the X-ray tube, a second and a third radiation wall part (62, 64), both of which are affixed to the monochromator vacuum chamber body. an X-ray tube providing a beam of photons, which via an X-ray monochromator is directed through the system so as to excite electrons from an illuminated sample, the X-ray tube being connected to a monochromator vacuum chamber in which a crystal is configured to monochromatize and focus the beam onto the sample, the illuminated sample being mounted on a manipulator, movable in at least one direction to allow for measurements at different sample angles, inside an analysis vacuum chamber, the analysis vacuum chamber being connected to an electron energy analyser, which is mounted onto the analysis vacuum chamber, a first radiation wall part being affixed to a part of the vacuum vessel wall of the X-ray tube, a second and a third radiation wall part (62, 64), both of which are affixed to the monochromator vacuum chamber body.
A cleaner comprising: a body which forms an outer appearance; a mop module having at least one rag part which is provided to wipe a floor while rotating; and a detaching module comprising at least one locking part which detachably locks the mop module to the body, and a manipulation part which is exposed outsi de, wherein when the manipulation part is touched, the locking part releases locking of the mop module, wherein the detaching module comprises: a locking member which includes the locking part and is movable in a predetermined locking release direction; and a leading member which moves the locking member by being connected with the locking member, wherein: the leading member comprises a moving member which is movable in a predetermined moving direction, wherein the moving member and the locking member are connected with each other, so that when the moving member moves in the moving direction, the locking member moves in the locking release direction. a body which forms an outer appearance; a mop module having at least one rag part which is provided to wipe a floor while rotating; and a detaching module comprising at least one locking part which detachably locks the mop module to the body, and a manipulation part which is exposed outsi de, wherein when the manipulation part is touched, the locking part releases locking of the mop module, wherein the detaching module comprises: a locking member which includes the locking part and is movable in a predetermined locking release direction; and a leading member which moves the locking member by being connected with the locking member, wherein: the leading member comprises a moving member which is movable in a predetermined moving direction, wherein the moving member and the locking member are connected with each other, so that when the moving member moves in the moving direction, the locking member moves in the locking release direction. a locking member which includes the locking part and is movable in a predetermined locking release direction; and a leading member which moves the locking member by being connected with the locking member, wherein: the leading member comprises a moving member which is movable in a predetermined moving direction, wherein the moving member and the locking member are connected with each other, so that when the moving member moves in the moving direction, the locking member moves in the locking release direction. the leading member comprises a moving member which is movable in a predetermined moving direction, wherein the moving member and the locking member are connected with each other, so that when the moving member moves in the moving direction, the locking member moves in the locking release direction.
A method for manufacturing a heat dissipating structure comprising: growing carbon nanotube assembly on a growth substrate; disposing, on the carbon nanotube assembly, a thermoplastic material sheet having a thickness larger than a length of the carbon nanotubes; heating and melting the thermoplastic material sheet so as to embed the carbon nanotube assembly, and thereafter cooling and solidifying the thermoplastic material to form a carbon nanotube sheet; disposing the carbon nanotube sheet between opposing surfaces of a heat source and a heat dissipating part, at least one of which opposing surfaces has a concave portion (4, 5, 6, 7), constituting a laminated structure; heating and pressing the carbon nanotube sheet held between the heat source and the heat dissipating part to melt the thermoplastic material and shorten distance between the heat source and the heat dissipating part so as to bring two end faces of the carbon nanotube assembly in contact with the heat source and the heat dissipating part; and cooling the laminated structure to solidify the thermoplastic material. growing carbon nanotube assembly on a growth substrate; disposing, on the carbon nanotube assembly, a thermoplastic material sheet having a thickness larger than a length of the carbon nanotubes; heating and melting the thermoplastic material sheet so as to embed the carbon nanotube assembly, and thereafter cooling and solidifying the thermoplastic material to form a carbon nanotube sheet; disposing the carbon nanotube sheet between opposing surfaces of a heat source and a heat dissipating part, at least one of which opposing surfaces has a concave portion (4, 5, 6, 7), constituting a laminated structure; heating and pressing the carbon nanotube sheet held between the heat source and the heat dissipating part to melt the thermoplastic material and shorten distance between the heat source and the heat dissipating part so as to bring two end faces of the carbon nanotube assembly in contact with the heat source and the heat dissipating part; and cooling the laminated structure to solidify the thermoplastic material.
A method of providing neighbor information in a multi-hop wireless communication system, the method comprising: a base station broadcasting a neighbor advertisement message including a neighbor list; the base station transmitting a neighbor information message to a relay station connected to the base station, wherein the neighbor information message is generated by considering a location of the relay station; the relay station generating a new neighbor advertisement message including only a portion of the neighbor list by using the neighbor information message; and broadcasting the new neighbor advertisement message downstream of the relay station including to mobile stations. a base station broadcasting a neighbor advertisement message including a neighbor list; the base station transmitting a neighbor information message to a relay station connected to the base station, wherein the neighbor information message is generated by considering a location of the relay station; the relay station generating a new neighbor advertisement message including only a portion of the neighbor list by using the neighbor information message; and broadcasting the new neighbor advertisement message downstream of the relay station including to mobile stations.
A method for producing a polylactate, which comprises the steps of: culturing a recombinant microorganism having a protein capable of catalyzing a reaction of transferring CoA to propionic acid and/or lactate consisting of the amino acid sequence shown in SEQ ID NO: 4 or an amino acid sequence derived from the amino acid sequence shown in SEQ ID NO: 4 by deletion, substitution, or addition of one to fifty amino acid(s) and a protein capable of catalyzing a reaction of polyhydroxyalkanoate synthesis consisting of the following amino acid sequence (a) or (b) in a medium containing a carbon source: (a) an amino acid sequence derived from the amino acid sequence shown in SEQ ID NO: 2 by substitution of at least one of the amino acids at positions 130, 325, 477, and 481 with different amino acid(s); or (b) an amino acid sequence derived from the protein specified in (a) by additional deletion or substitution of one to fifty amino acid(s) other than the amino acids at positions 130, 325, 477, and 481 or by insertion of one to fifty amino acid residue(s); and collecting the polylactate from the culture product obtained in step. culturing a recombinant microorganism having a protein capable of catalyzing a reaction of transferring CoA to propionic acid and/or lactate consisting of the amino acid sequence shown in SEQ ID NO: 4 or an amino acid sequence derived from the amino acid sequence shown in SEQ ID NO: 4 by deletion, substitution, or addition of one to fifty amino acid(s) and a protein capable of catalyzing a reaction of polyhydroxyalkanoate synthesis consisting of the following amino acid sequence (a) or (b) in a medium containing a carbon source: (a) an amino acid sequence derived from the amino acid sequence shown in SEQ ID NO: 2 by substitution of at least one of the amino acids at positions 130, 325, 477, and 481 with different amino acid(s); or (b) an amino acid sequence derived from the protein specified in (a) by additional deletion or substitution of one to fifty amino acid(s) other than the amino acids at positions 130, 325, 477, and 481 or by insertion of one to fifty amino acid residue(s); and (a) an amino acid sequence derived from the amino acid sequence shown in SEQ ID NO: 2 by substitution of at least one of the amino acids at positions 130, 325, 477, and 481 with different amino acid(s); or (b) an amino acid sequence derived from the protein specified in (a) by additional deletion or substitution of one to fifty amino acid(s) other than the amino acids at positions 130, 325, 477, and 481 or by insertion of one to fifty amino acid residue(s); and collecting the polylactate from the culture product obtained in step.
A tail sitter aircraft capable of forward flight and hover operations, comprising: a wing (12, 13); first and second prop-nacelles (14, 15) supportively disposed on the wing (12, 13), each of the first and second prop-nacelles (14, 15) including an articulable rotor, which is rotatable about variable rotational axes and which comprises blades that are collectively and cyclically controllable in both forward flight and hover regimes, wherein the articulable rotor of each of the first and second prop-nacelles (14, 15) is rotatable about variable rotational axes that are not aligned with longitudinal axes of the first and second prop-nacelles (14, 15) while the blades are collectively and cyclically controllable to assume variable pitching angles, and a flight computer configured to execute controlled articulations of each articulable rotor and to execute collective and cyclic control of the blades. a wing (12, 13); first and second prop-nacelles (14, 15) supportively disposed on the wing (12, 13), each of the first and second prop-nacelles (14, 15) including an articulable rotor, which is rotatable about variable rotational axes and which comprises blades that are collectively and cyclically controllable in both forward flight and hover regimes, wherein the articulable rotor of each of the first and second prop-nacelles (14, 15) is rotatable about variable rotational axes that are not aligned with longitudinal axes of the first and second prop-nacelles (14, 15) while the blades are collectively and cyclically controllable to assume variable pitching angles, and a flight computer configured to execute controlled articulations of each articulable rotor and to execute collective and cyclic control of the blades.