mhurhangee/ep-ind-claims huggingface dataset:
Tank for an operating liquid of a motor vehicle, with a tank wall composed of plastic, having an opening, and with an insert composed of metal arranged at the opening, and a flexible sealing element for the liquid-tight connection of the tank wall and of the insert to one another, wherein the flexible sealing element is a diaphragm, wherein a first section of the diaphragm is connected cohesively to the tank wall, and a second section of the diaphragm is connected cohesively to the metallic insert, wherein the diaphragm has, between the first section and the second section, a flexibility zone, wherein the flexibility zone is not in contact with the tank wall and the insert, and which compensates relative displacements owing to thermal expansions between the tank wall and the insert, wherein relative displacements between the tank wall and the insert occur at least in sections owing to thermal expansions of the tank wall and of the insert, and the flexible sealing element is designed such that, on the insert and on the tank wall, respective sealing surfaces (8, 16) are formed against which the sealing element bears independently of the relative displacements.
An automobile comprising: a motor (MG1, MG2, MG3) configured to run the automobile; a battery configured to deliver and receive electric power to and from the motor (MG1, MG2, MG3); a main controller configured to set a first torque command of the motor (MG1, MG2, MG3) according to an accelerator operation amount of the automobile; and a motor controller configured to: (i) communicate with the main controller, (ii) receive the first torque command from the main controller, (iii) control the motor (MG1, MG2, MG3) so as to drive the motor (MG1, MG2, MG3) according to the first torque command received, characterized in that when there is an abnormality in communications between the motor controller and the main controller, the motor controller being configured to: (iv) control the motor (MG1, MG2, MG3) so as to drive the motor (MG1, MG2, MG3) according to a second torque command, when the accelerator operation amount is smaller than a first threshold value, and (v) control the motor (MG1, MG2, MG3) so as to drive the motor (MG1, MG2, MG3) according to a third torque command that is larger than the second torque command, when the accelerator operation amount is equal to or larger than the first threshold value. a motor (MG1, MG2, MG3) configured to run the automobile; a battery configured to deliver and receive electric power to and from the motor (MG1, MG2, MG3); a main controller configured to set a first torque command of the motor (MG1, MG2, MG3) according to an accelerator operation amount of the automobile; and a motor controller configured to: (i) communicate with the main controller, (ii) receive the first torque command from the main controller, (iii) control the motor (MG1, MG2, MG3) so as to drive the motor (MG1, MG2, MG3) according to the first torque command received, characterized in that when there is an abnormality in communications between the motor controller and the main controller, the motor controller being configured to: (iv) control the motor (MG1, MG2, MG3) so as to drive the motor (MG1, MG2, MG3) according to a second torque command, when the accelerator operation amount is smaller than a first threshold value, and (v) control the motor (MG1, MG2, MG3) so as to drive the motor (MG1, MG2, MG3) according to a third torque command that is larger than the second torque command, when the accelerator operation amount is equal to or larger than the first threshold value. (i) communicate with the main controller, (ii) receive the first torque command from the main controller, (iii) control the motor (MG1, MG2, MG3) so as to drive the motor (MG1, MG2, MG3) according to the first torque command received, characterized in that (iv) control the motor (MG1, MG2, MG3) so as to drive the motor (MG1, MG2, MG3) according to a second torque command, when the accelerator operation amount is smaller than a first threshold value, and (v) control the motor (MG1, MG2, MG3) so as to drive the motor (MG1, MG2, MG3) according to a third torque command that is larger than the second torque command, when the accelerator operation amount is equal to or larger than the first threshold value.
A communication apparatus comprising: a PHY frame generating circuit that is adapted to generate a PHY frame including either of a short Sector Sweep frame and a Sector Sweep frame; and an array antenna that is adapted to select, based on the PHY frame, any sector from among a plurality of sectors and transmits the PHY frame, wherein the PHY frame generating circuit is adapted so that in a case where, in the PHY frame including the Short SSW frame, a Direction field of the Short SSW frame indicates Initiator Sector Sweep, the PHY frame generating circuit replaces a short Sector Sweep Feedback field indicating an index of a selected best Short SSW with a Short Scrambled Basic Service Set ID field indicating an abbreviated address generated from a BSSID, wherein the abbreviated address is a value that is obtained by scrambling a value of the BSSID based on any field included in the PHY frame and by performing calculation using a hash function. a PHY frame generating circuit that is adapted to generate a PHY frame including either of a short Sector Sweep frame and a Sector Sweep frame; and an array antenna that is adapted to select, based on the PHY frame, any sector from among a plurality of sectors and transmits the PHY frame, wherein the PHY frame generating circuit is adapted so that in a case where, in the PHY frame including the Short SSW frame, a Direction field of the Short SSW frame indicates Initiator Sector Sweep, the PHY frame generating circuit replaces a short Sector Sweep Feedback field indicating an index of a selected best Short SSW with a Short Scrambled Basic Service Set ID field indicating an abbreviated address generated from a BSSID, wherein the abbreviated address is a value that is obtained by scrambling a value of the BSSID based on any field included in the PHY frame and by performing calculation using a hash function.
Method for removing a filter unit from a laboratory extraction hood in safety conditions for an operator and for the surrounding environment, comprising the steps of: a) sprinkling said filter unit with a solidifiable solution, b) waiting for a solidification period so that said solidifiable solution, solidifying, prevents said filter unit from releasing into the environment contaminating toxic substances such as fibres, which have been previously retained during operation of said laboratory extraction hood, and c) extracting said filter unit from said laboratory extraction hood. a) sprinkling said filter unit with a solidifiable solution, b) waiting for a solidification period so that said solidifiable solution, solidifying, prevents said filter unit from releasing into the environment contaminating toxic substances such as fibres, which have been previously retained during operation of said laboratory extraction hood, and c) extracting said filter unit from said laboratory extraction hood.
A driving assistance system comprising: magnetic markers laid on a travelling road so as to be magnetically detectable and also be able to provide code information to a vehicle side; a vehicle configured to be able to magnetically detect the magnetic markers and also read the code information; and a base station configured to make a reply with corresponding information when receiving the code information from the vehicle reading the code information, wherein the magnetic markers each include a magnetism generating unit which generates a peripheral magnetic field and also an information providing unit which provides the code information to the vehicle side, the information providing unit is a radio tag held by the magnetic marker, and the magnetism generating unit has a magnet molded including magnetic powder as a magnetism generation source. magnetic markers laid on a travelling road so as to be magnetically detectable and also be able to provide code information to a vehicle side; a vehicle configured to be able to magnetically detect the magnetic markers and also read the code information; and a base station configured to make a reply with corresponding information when receiving the code information from the vehicle reading the code information, wherein the magnetic markers each include a magnetism generating unit which generates a peripheral magnetic field and also an information providing unit which provides the code information to the vehicle side, the information providing unit is a radio tag held by the magnetic marker, and the magnetism generating unit has a magnet molded including magnetic powder as a magnetism generation source.
An apparatus comprising: a frame, wherein the frame comprises: a support member; a main member; and a pivot joint pivotably connecting the support member and the main member; and a support assembly connected to the support member for supporting a user; wherein movement of the support member and support assembly about the pivot joint allows the user to be positioned between a supine position that is horizontal, a standing position that is vertical, and a prone position beyond vertical without reconfiguration of the apparatus or rotation of the user with respect to the support assembly, wherein a range of angular movement between the supine position and the standing position is 90 degrees, and wherein a range of angular movement between the supine position and the prone position is greater than 90 degrees and the prone position is up to 20 degrees past vertical. a frame, wherein the frame comprises: a support member; a main member; and a pivot joint pivotably connecting the support member and the main member; and a support member; a main member; and a pivot joint pivotably connecting the support member and the main member; and a support assembly connected to the support member for supporting a user; wherein movement of the support member and support assembly about the pivot joint allows the user to be positioned between a supine position that is horizontal, a standing position that is vertical, and a prone position beyond vertical without reconfiguration of the apparatus or rotation of the user with respect to the support assembly, wherein a range of angular movement between the supine position and the standing position is 90 degrees, and wherein a range of angular movement between the supine position and the prone position is greater than 90 degrees and the prone position is up to 20 degrees past vertical.
A substrate having a film or coating adhered to a surface of the substrate, the film or coating comprising: (i) a strongly basic anion-exchange resin consisting of multiple quaternary ammonium functional groups bound to an insoluble organic polymer matrix; and (ii) an anion bound to the strongly basic anion-exchange resin, wherein the anion is free of transition metals and is selected from the group consisting of IO 3 -, ClO -, ClO 3 -, BrO 3 -, and mixtures thereof, the film or coating having antimicrobial activity, wherein the substrate surface comprises a surface of a medical device or medical device component. (i) a strongly basic anion-exchange resin consisting of multiple quaternary ammonium functional groups bound to an insoluble organic polymer matrix; and (ii) an anion bound to the strongly basic anion-exchange resin, wherein the anion is free of transition metals and is selected from the group consisting of IO 3 -, ClO -, ClO 3 -, BrO 3 -, and mixtures thereof, the film or coating having antimicrobial activity,
Thermosiphon collector, comprising at least one fluid reservoir (l) for a fluid heat transfer medium, and also at least one solar absorber, wherein at least the solar absorber is formed from a double-walled extruded plate with at least two channels (1, 2), wherein at least one first channel is in fluidic connection to a lower region (la) of the fluid reservoir (l), and at least one second channel is in fluidic connection to an upper region (Ib) of the fluid reservoir (l), and respectively at least one first channel is in fluidic connection to at least one second channel at the end of the solar absorber facing away from the fluid reservoir, wherein all the channels (1, 2) are configured situated side by side in one plane, characterized in that the first type of channels are hereby disposed outwards at the solar absorber and the second type of channels are disposed inwards, so that the second type of channels is enclosed by the first type of channels.
A nuclear power plant comprising at least - a containment building inside which a nuclear reactor (1, 2) is located, - a power generation building inside which the turbines and other electricity-generating components are located, and - a nuclear material building or warehouse for storing nuclear waste or nuclear fuel, all the aforementioned buildings being buried and, except the power generation building, connected by means of cooling pipes with at least one cooling water tank located above them and communicated with the sea and below sea level, such that the water falls due to gravity in the case of needing to cool or flood said buildings (6, 7, 9) and further comprising - pipes used for steam exhaust coming from at least the containment building and ending at the bottom of the water tank, and - means of valve and float systems for keeping the tank at a constant water level. - a containment building inside which a nuclear reactor (1, 2) is located, - a power generation building inside which the turbines and other electricity-generating components are located, and - a nuclear material building or warehouse for storing nuclear waste or nuclear fuel, all the aforementioned buildings being buried and, except the power generation building, connected by means of cooling pipes with at least one cooling water tank located above them and communicated with the sea and below sea level, such that the water falls due to gravity in the case of needing to cool or flood said buildings (6, 7, 9) and further comprising - pipes used for steam exhaust coming from at least the containment building and ending at the bottom of the water tank, and - means of valve and float systems for keeping the tank at a constant water level.
A multichannel Transcranial Magnetic Stimulation (mTMS) coil device comprising: - a first coil winding having a first power input line for a first current, - a second coil winding having a second power input line for a second current, and - wherein the first and second coil windings are at least partially overlapping, and - wherein the first and second coil windings are each for generating an induced electric field in at least one predetermined direction and orientation (41, 43) when a current is passed through them such that the predetermined direction and/or orientation of the induced electric field to be generated by the second coil winding is different from that of the first coil winding and the second current in the second coil winding generates an electric field for altering either the direction, position and/or orientation of the electric field of the first coil winding - a first coil winding having a first power input line for a first current, - a second coil winding having a second power input line for a second current, and - wherein the first and second coil windings are at least partially overlapping, and - wherein the first and second coil windings are each for generating an induced electric field in at least one predetermined direction and orientation (41, 43) when a current is passed through them such that the predetermined direction and/or orientation of the induced electric field to be generated by the second coil winding is different from that of the first coil winding and the second current in the second coil winding generates an electric field for altering either the direction, position and/or orientation of the electric field of the first coil winding
A recombinant protein, comprising: a peptide, wherein the peptide comprises an amino acid sequence after substitution of a sequence as set forth in SEQ ID NO: 1, and wherein the substitution comprises one selected from a group consisting of the following substitutions: a single substitution, in which an amino acid at position 182 of SEQ ID NO: 1 is substituted from glycine (Gly) to aspartic acid (Asp) (Gly182Asp); a double substitution, in which the amino acid at position 182 of SEQ ID NO: 1 is substituted from glycine (Gly) to aspartic acid (Asp) (Gly182Asp), and an amino acid at position 268 of SEQ ID NO: 1 is substituted from asparagine (Asn) to aspartic acid (Asp) (Asn268Asp); and a triple substitution, in which the amino acid at position 182 of SEQ ID NO: 1 is substituted from glycine (Gly) to aspartic acid (Asp) (Gly182Asp), the amino acid at position 268 of SEQ ID NO: 1 is substituted from asparagine (Asn) to aspartic acid (Asp) (Asn268Asp), and an amino acid at position 384 of SEQ ID NO: 1 is substituted from histidine (His) to tyrosine (Tyr) (His384Tyr). a single substitution, in which an amino acid at position 182 of SEQ ID NO: 1 is substituted from glycine (Gly) to aspartic acid (Asp) (Gly182Asp); a double substitution, in which the amino acid at position 182 of SEQ ID NO: 1 is substituted from glycine (Gly) to aspartic acid (Asp) (Gly182Asp), and an amino acid at position 268 of SEQ ID NO: 1 is substituted from asparagine (Asn) to aspartic acid (Asp) (Asn268Asp); and a triple substitution, in which the amino acid at position 182 of SEQ ID NO: 1 is substituted from glycine (Gly) to aspartic acid (Asp) (Gly182Asp), the amino acid at position 268 of SEQ ID NO: 1 is substituted from asparagine (Asn) to aspartic acid (Asp) (Asn268Asp), and an amino acid at position 384 of SEQ ID NO: 1 is substituted from histidine (His) to tyrosine (Tyr) (His384Tyr).
A gear train lubricating device configured to supply lubricating oil to a geat included in a gear train, the gear train lubricating device comprising: a shroud covering, among components constituting the gear, at least teeth of the gear; and a lubricating oil supply port through which the lubricating oil is supplied to a meshing position of the gear, wherein the shroud has an outlet port formed therein, through which the supplied lubricating oil is discharged, the outlet port is formed in a portion, of the shroud, that is positioned radially outward from the gear, such that the outlet port is disposed at an angular position that is 90° ± 15° forward from the meshing position in a rotation direction of the gear, characterized in that the outlet port has an angular width of 45° ± 7° with respect to a central axis of the gear. a shroud covering, among components constituting the gear, at least teeth of the gear; and a lubricating oil supply port through which the lubricating oil is supplied to a meshing position of the gear, wherein the shroud has an outlet port formed therein, through which the supplied lubricating oil is discharged, the outlet port is formed in a portion, of the shroud, that is positioned radially outward from the gear, such that the outlet port is disposed at an angular position that is 90° ± 15° forward from the meshing position in a rotation direction of the gear, characterized in that the outlet port has an angular width of 45° ± 7° with respect to a central axis of the gear.
A camera configured to display an image onto a display unit, the camera comprising: a camera head unit; an orientation unit disposed on the camera head unit, the orientation unit configured to detect a first and second spatial orientation of the camera head unit and detect a vector information of the camera head unit; a first input configured to record spatial information of the image; and a display control unit configured to process the first and second spatial orientation recorded by the first input and the vector information as the camera is handed from a first person to a second person so as to retain a preferred orientation of the image as the camera head unit is moved, the first spatial orientation of the camera head unit recorded when the camera is pointed at an end user position, and the second spatial orientation of the camera head unit recorded when the camera is pointed at a surgical site. a camera head unit; an orientation unit disposed on the camera head unit, the orientation unit configured to detect a first and second spatial orientation of the camera head unit and detect a vector information of the camera head unit; a first input configured to record spatial information of the image; and a display control unit configured to process the first and second spatial orientation recorded by the first input and the vector information as the camera is handed from a first person to a second person so as to retain a preferred orientation of the image as the camera head unit is moved, the first spatial orientation of the camera head unit recorded when the camera is pointed at an end user position, and the second spatial orientation of the camera head unit recorded when the camera is pointed at a surgical site.
A drug dose for use with an inhaler device, the drug dose comprising: a source material layer; an electrically resistive material layer (one of 25A-B) in contact with at least one side of the source material layer, the electrically resistive material layer configured to emit heat when contacted by electrodes (26A-B); characterized in that: said drug dose comprises a stacked layer structure comprising said source material layer and said electrically resistive material layer (25A-B); and the electrically resistive material layer is semi permeable, having apertures configured to allow vapors of an active substance released from source material of the source material layer to escape, and the electrically resistive material layer is configured to prevent the source material from escaping. a source material layer; an electrically resistive material layer (one of 25A-B) in contact with at least one side of the source material layer, the electrically resistive material layer configured to emit heat when contacted by electrodes (26A-B); characterized in that: said drug dose comprises a stacked layer structure comprising said source material layer and said electrically resistive material layer (25A-B); and the electrically resistive material layer is semi permeable, having apertures configured to allow vapors of an active substance released from source material of the source material layer to escape, and the electrically resistive material layer is configured to prevent the source material from escaping. said drug dose comprises a stacked layer structure comprising said source material layer and said electrically resistive material layer (25A-B); and the electrically resistive material layer is semi permeable, having apertures configured to allow vapors of an active substance released from source material of the source material layer to escape, and the electrically resistive material layer is configured to prevent the source material from escaping.
Conveyor (1, 201) for conveying a tire component, in particular a tread for retreading, wherein the conveyor comprises a support surface (20, 220) that extends in a direction of conveyance to support the tire component during conveyance in the direction of conveyance, wherein the support surface is provided with corrugations (24, 224) extending in the direction of conveyance, characterized in that the conveyor is provided with one or more manipulators (3, 4, 5, 6, 103) to manipulate the position of the tire component, wherein the one or more manipulators comprises a first manipulator (3, 103) that is provided with a base plate (30, 130) and a drive for driving the base plate in a direction parallel to the direction of conveyance towards the tire component, wherein the base plate is provided with a plurality of teeth which are arranged to mesh with the corrugations (24, 224) and which form an inclined comb-like run-on surface for lifting the tire component onto the base plate (30, 130) when the base plate is moving towards the tire component.