mhurhangee/ep-ind-claims huggingface dataset:
An aircraft cabin attendant seat, comprising: a support element extending from a cabin floor comprising of an at least two coupled support element subsections configured to at least one of slide or fold onto each other; a coupler configured to attach the support element to the cabin floor, wherein the coupler is further configured to at least one of translate the support element along a first direction parallel to the cabin floor or rotate the support element about a vertical axis; a backrest coupled to the support element; a headrest coupled to the support element disposed above to the backrest; a seating portion coupled to the support element disposed below the backrest, comprising: a seat; and a hinge configured to couple the seat to the support element, wherein the seat is configured to retract from a seated position into a storage position; wherein at least one support element subsection is configured to collapse upon an adjacent support subsection via a guided track; wherein the aircraft cabin attendant seat is further configured to collapse into a compact form for use of an at least one of a table or pedestal. a support element extending from a cabin floor comprising of an at least two coupled support element subsections configured to at least one of slide or fold onto each other; a coupler configured to attach the support element to the cabin floor, wherein the coupler is further configured to at least one of translate the support element along a first direction parallel to the cabin floor or rotate the support element about a vertical axis; a backrest coupled to the support element; a headrest coupled to the support element disposed above to the backrest; a seating portion coupled to the support element disposed below the backrest, comprising: a seat; and a hinge configured to couple the seat to the support element, wherein the seat is configured to retract from a seated position into a storage position; wherein at least one support element subsection is configured to collapse upon an adjacent support subsection via a guided track; wherein the aircraft cabin attendant seat is further configured to collapse into a compact form for use of an at least one of a table or pedestal. a seat; and a hinge configured to couple the seat to the support element, wherein the seat is configured to retract from a seated position into a storage position; wherein at least one support element subsection is configured to collapse upon an adjacent support subsection via a guided track; wherein the aircraft cabin attendant seat is further configured to collapse into a compact form for use of an at least one of a table or pedestal.
A negative electrode for a secondary battery, comprising: a current collector; and a mixture layer formed on one or both surfaces of the current collector, wherein the mixture layer has a two-layer structure in which a first mixture layer and a second mixture layer are stacked, the first mixture layer includes a first carbon material and a silicon oxide as a first active materials in a weight ratio of 90 to 99: 1 to 10 and a first needle type carbon-based conductive material as a first conductive material, the second mixture layer includes a second carbon material as a second active material and a second sphere type carbon-based conductive material as a second conductive material, the second sphere type carbon-based conductive material is carbon black, and the first needle type carbon-based conductive material is a carbon nanotube, a vapor-grown carbon fiber (VGCF), a carbon nanofiber, or a mixture of two or more thereof. a current collector; and a mixture layer formed on one or both surfaces of the current collector, wherein the mixture layer has a two-layer structure in which a first mixture layer and a second mixture layer are stacked, the first mixture layer includes a first carbon material and a silicon oxide as a first active materials in a weight ratio of 90 to 99: 1 to 10 and a first needle type carbon-based conductive material as a first conductive material, the second mixture layer includes a second carbon material as a second active material and a second sphere type carbon-based conductive material as a second conductive material, the second sphere type carbon-based conductive material is carbon black, and the first needle type carbon-based conductive material is a carbon nanotube, a vapor-grown carbon fiber (VGCF), a carbon nanofiber, or a mixture of two or more thereof.
A plating method for a cylinder, comprising: holding a long cylinder at both ends in a longitudinal direction; accommodating the long cylinder in a plating bath filled with a plating solution; energizing the long cylinder so that the long cylinder functions as a cathode while rotating the long cylinder at a predetermined speed; bringing a pair of opposed insoluble electrodes close to both side surfaces of the long cylinder with a predetermined interval; the pair of opposed insoluble electrodes being vertically installed so as to face both the side surfaces of the long cylinder in the plating bath and supplied with a predetermined current; and performing plating on an outer peripheral surface of the long cylinder; wherein the pair of opposed insoluble electrodes has a shape in which a lower part thereof is curved inward and the insoluble electrodes are configured so as to rotate about upper ends thereof about rotation shafts provided in the plating bath, said pair of opposed insoluble electrodes being mounted for movement such that said lower part rotates about said upper end in accordance with the diameter of the cylinder and such that the interval of closeness of the lower end thereof to the surface of the cylinder is controlled to an optimum position; and wherein a thickness of a plating layer on the outer peripheral surface of the long cylinder is adjusted by controlling said interval of closeness to the long cylinder. holding a long cylinder at both ends in a longitudinal direction; accommodating the long cylinder in a plating bath filled with a plating solution; energizing the long cylinder so that the long cylinder functions as a cathode while rotating the long cylinder at a predetermined speed; bringing a pair of opposed insoluble electrodes close to both side surfaces of the long cylinder with a predetermined interval; the pair of opposed insoluble electrodes being vertically installed so as to face both the side surfaces of the long cylinder in the plating bath and supplied with a predetermined current; and performing plating on an outer peripheral surface of the long cylinder; wherein the pair of opposed insoluble electrodes has a shape in which a lower part thereof is curved inward and the insoluble electrodes are configured so as to rotate about upper ends thereof about rotation shafts provided in the plating bath, said pair of opposed insoluble electrodes being mounted for movement such that said lower part rotates about said upper end in accordance with the diameter of the cylinder and such that the interval of closeness of the lower end thereof to the surface of the cylinder is controlled to an optimum position; and wherein a thickness of a plating layer on the outer peripheral surface of the long cylinder is adjusted by controlling said interval of closeness to the long cylinder.
A motor unit for an electric sunlight shielding apparatus, the motor unit comprises: a base member configured to be attached to an end portion of a rail for transferring a sunlight shielding material (2a, 2b), a motor configured to transfer the sunlight shielding material (2a, 2b) along the rail, a power source board, a control board, and a motor case having a tube shape and accommodating the motor, the power source board, and the control board, characterized in that the motor, the power source board and the control board are assembled to form a motor assembly, and the motor assembly is integrally fixed to the base member via fixing brackets (19, 20, 26), and the motor assembly, comprising the motor, the power source board and the control board, integrally fixed to the base member is capable of being inserted together in the motor case. a base member configured to be attached to an end portion of a rail for transferring a sunlight shielding material (2a, 2b), a motor configured to transfer the sunlight shielding material (2a, 2b) along the rail, a power source board, a control board, and a motor case having a tube shape and accommodating the motor, the power source board, and the control board, characterized in that the motor, the power source board and the control board are assembled to form a motor assembly, and the motor assembly is integrally fixed to the base member via fixing brackets (19, 20, 26), and the motor assembly, comprising the motor, the power source board and the control board, integrally fixed to the base member is capable of being inserted together in the motor case.
A container manufacturing method, comprising: a preform feed step of feeding a preform formed into a bottomed tubular shape by a resin material into a cavity of a batch-type mold for blow molding; a liquid blow step of filling a pressurized liquid into the preform disposed in the cavity to perform blow molding; and an ejection step of ejecting a container after blow molding from the cavity, wherein the method further comprises a mold slide step of sliding the mold for blow molding to a slide position that is different from a position of the mold for blow molding in the liquid blow step, characterized by that the method includes at least one of the following features - a decoration step of applying a decoration to an outer surface of the container with the mold for blow molding located at the slide position, - a cap attaching step of attaching a cap to a mouth of the container with the mold for blow molding located at the slide position, and - the ejection step being performed with the mold for blow molding located at the slide position. a preform feed step of feeding a preform formed into a bottomed tubular shape by a resin material into a cavity of a batch-type mold for blow molding; a liquid blow step of filling a pressurized liquid into the preform disposed in the cavity to perform blow molding; and an ejection step of ejecting a container after blow molding from the cavity, wherein the method further comprises a mold slide step of sliding the mold for blow molding to a slide position that is different from a position of the mold for blow molding in the liquid blow step, characterized by that - a decoration step of applying a decoration to an outer surface of the container with the mold for blow molding located at the slide position, - a cap attaching step of attaching a cap to a mouth of the container with the mold for blow molding located at the slide position, and - the ejection step being performed with the mold for blow molding located at the slide position.
A computing device for execution of a procedure, in particular a procedure that may be schematically represented in the form of a graph having nodes, wherein said nodes are operators of the procedure, the computing device comprising: - at least one executive unit to execute operations on input data given in the form of tokens, wherein each of the executive units is connected to a message and token generator forming output data in the form of tokens, - a node table storing a description of each node of the graph and connections between nodes which are used to form and transmit tokens to the at least one executive unit, the node table comprising at least the following information for each node of the graph: ▪ a node index, ▪ a number of input data of the node, ▪ a number of output data of the node, ▪ an operator of the node applied by the node to the input data of the node, and at least one index of a further node to which the node, having executed the operator, sends the output data of the node, - a matching device comprising an associative memory (3.1) and configured for using the description of the nodes in the node table to store the input data, to search for the input data, and to send to the executive units the input data specifically intended for these executive units, - a message queue (8.1) and a token queue (8.2), - a demultiplexer, - an input network controller (6.1) and an output network controller (6.2), - a message decoder (7.1) and a message encoder (7.2), and - an external device interface. - at least one executive unit to execute operations on input data given in the form of tokens, wherein each of the executive units is connected to a message and token generator forming output data in the form of tokens, - a node table storing a description of each node of the graph and connections between nodes which are used to form and transmit tokens to the at least one executive unit, the node table comprising at least the following information for each node of the graph: ▪ a node index, ▪ a number of input data of the node, ▪ a number of output data of the node, ▪ an operator of the node applied by the node to the input data of the node, and at least one index of a further node to which the node, having executed the operator, sends the output data of the node, ▪ a node index, ▪ a number of input data of the node, ▪ a number of output data of the node, ▪ an operator of the node applied by the node to the input data of the node, and at least one index of a further node to which the node, having executed the operator, sends the output data of the node, - a matching device comprising an associative memory (3.1) and configured for using the description of the nodes in the node table to store the input data, to search for the input data, and to send to the executive units the input data specifically intended for these executive units, - a message queue (8.1) and a token queue (8.2), - a demultiplexer, - an input network controller (6.1) and an output network controller (6.2), - a message decoder (7.1) and a message encoder (7.2), and - an external device interface.
Method for stabilising a rail vehicle having a wheelset wherein the speed (84, 86, v) of the rail vehicle is changed if a critical vibration state of the wheelset occurs, and the speed (84, 86, v) of the rail vehicle is changed (110, 140) using a vibration state variable of the wheelset, characterised in that a function that specifies a functional relationship between the vibration state variable and the speed (84, 86, v) of the rail vehicle is stored in a control unit of the rail vehicle, and the speed (84, 86, v) is changed using the function.
A hydrogen and/or oxygen producing device comprising a light source capable of emitting visible light with a wavelength of 460 nm or more, a quartz cell formed of a material that allows the light emitted from the light source to transmit therethrough and adapted to hold a dispersion of water and a powder of an optically pumped semiconductor for decomposing water and thereby producing hydrogen and/or oxygen when being irradiated with light, a separation film for separating the gases produced; tanks in which the gases are collected; and gas pipes (16, 17) connecting the cell to the tanks, respectively; wherein the optically pumped semiconductor is a semiconductor of a perovskite oxide, the optically pumped semiconductor has a composition of BaZr 0.8 Gd 0.2 O 3-α, BaZr 0.8 Ga 0.2 O 3-α or a composition represented by a general formula: BaZr 1-x In x O 3-α, where, wherein x denotes a numerical value more than 0.1 but less than 0.6, and α denotes an amount of oxygen deficiency that is a numerical value more than 0 but less than 1.5, and has a crystal system of a cubic, or orthorhombic crystal, and when lattice constants of the crystal system are referred to as a, b, and c, provided that a ≤ b ≤ c, conditions that 0.41727 nm ≤ a, b, c ≤ 0.42716 nm and a/c ≥ 0.98 are satisfied.
An infant swing apparatus comprising: a base frame for providing stable resting support on a floor, the base frame having a rear edge and a front edge and extending along a horizontal plane; a support column connected with the base frame, the support column rising upward from the base frame and having a front and a rear, the support column having an upper portion that has an elongated and substantially straight shape extending along an axis, the upper portion leaning towards the rear of the support column and tilted an inclination angle relative to a vertical axis, the inclination angle being such that a projection of the upper portion on a support plane of the base frame extends rearward past the rear edge of the base frame; and a swing arm arranged at the front of the support column and having a first end portion and a second end portion, the first end portion being connected with a seat support, and the second end portion being pivotally connected with the upper portion of the support column about a pivot axis that is located above the seat support. a base frame for providing stable resting support on a floor, the base frame having a rear edge and a front edge and extending along a horizontal plane; a support column connected with the base frame, the support column rising upward from the base frame and having a front and a rear, the support column having an upper portion that has an elongated and substantially straight shape extending along an axis, the upper portion leaning towards the rear of the support column and tilted an inclination angle relative to a vertical axis, the inclination angle being such that a projection of the upper portion on a support plane of the base frame extends rearward past the rear edge of the base frame; and a swing arm arranged at the front of the support column and having a first end portion and a second end portion, the first end portion being connected with a seat support, and the second end portion being pivotally connected with the upper portion of the support column about a pivot axis that is located above the seat support.
An output driver comprising: a pull-up driver including first, second and third PMOSFETs connected by a cascode structure between a voltage supply node (OVDD) and an output node, wherein the voltage difference between the voltage supply node and the output node at a grounded level is greater than an operation voltage of each of the first, second and third PMOSFETs; and a pull-down driver including first, second and third NMOSFETs connected by a cascode structure between a ground node and the output node, and wherein, during a pull-up operation: a first high voltage, and a first power supply voltage are applied to the gates of the first and second PMOSFETs, respectively; a ground voltage, a second power supply voltage (VDD, NG2) and a second high voltage are applied to the gates of the first, second and third NMOSFETs respectively, wherein the second high voltage is equal to a voltage at the voltage supply node (OVDD), the first power supply voltage is an absolute difference voltage between the second power supply voltage (VDD, NG2) and the voltage at the voltage supply node (OVDD), and the second power supply voltage (VDD, NG2) is higher than the first power supply voltage. a pull-up driver including first, second and third PMOSFETs connected by a cascode structure between a voltage supply node (OVDD) and an output node, wherein the voltage difference between the voltage supply node and the output node at a grounded level is greater than an operation voltage of each of the first, second and third PMOSFETs; and a pull-down driver including first, second and third NMOSFETs connected by a cascode structure between a ground node and the output node, and wherein, during a pull-up operation: a first high voltage, and a first power supply voltage are applied to the gates of the first and second PMOSFETs, respectively; a ground voltage, a second power supply voltage (VDD, NG2) and a second high voltage are applied to the gates of the first, second and third NMOSFETs respectively, wherein the second high voltage is equal to a voltage at the voltage supply node (OVDD), the first power supply voltage is an absolute difference voltage between the second power supply voltage (VDD, NG2) and the voltage at the voltage supply node (OVDD), and the second power supply voltage (VDD, NG2) is higher than the first power supply voltage. a first high voltage, and a first power supply voltage are applied to the gates of the first and second PMOSFETs, respectively; a ground voltage, a second power supply voltage (VDD, NG2) and a second high voltage are applied to the gates of the first, second and third NMOSFETs respectively, wherein the second high voltage is equal to a voltage at the voltage supply node (OVDD), the first power supply voltage is an absolute difference voltage between the second power supply voltage (VDD, NG2) and the voltage at the voltage supply node (OVDD), and the second power supply voltage (VDD, NG2) is higher than the first power supply voltage.
An apparatus, comprising: an outer syringe body including a normally open switch and a pushrod; characterised in that the apparatus further comprises a plunger including a tab; wherein the tab of the plunger is adapted to be in contact with the pushrod when the plunger is moved from a first position into the apparatus to a second position to cause the pushrod to close the normally open switch. an outer syringe body including a normally open switch and a pushrod; characterised in that the apparatus further comprises a plunger including a tab; wherein the tab of the plunger is adapted to be in contact with the pushrod when the plunger is moved from a first position into the apparatus to a second position to cause the pushrod to close the normally open switch.
Tap changer with vacuum switching tubes for uninterrupted changeover between winding taps of a tapped transformer, wherein two load branches are provided for each phase to be switched, wherein each load branch comprises a vacuum switching tube (V1 V4) acting as a main contact and mechanical switching means (U1, U2) connectible in series therewith, wherein an auxiliary current branch connectible in parallel with the corresponding load branch is provided for each phase to be switched, wherein each auxiliary current branch comprises at least one switchover resistance (R1, R2) and in series a further vacuum switching contact (V2, V3) acting as an auxiliary contact and wherein not only the load branches, but also the auxiliary current branches of the two load branches are connected with a common load diverter, characterised in that the vacuum switching contact, which acts as main contact, of the first load branch, and the mechanical switching means arranged in series therewith of the first load branch and the vacuum switching contact, which acts as auxiliary contact, of the second load branch are constructionally combined in a single vacuum switching tube with a common housing, the vacuum switching contact, which acts as main contact, of the second load branch, and the mechanical switching means arranged in series therewith of the second load branch and the vacuum switching contact, which acts as auxiliary contact, of the first load branch are combined in a further single vacuum switching tube with a common housing and a respective separate hermetically sealed vacuum switching chamber (2, 3 and 4) is provided for each vacuum switching contact (V1, V3; V2, V4) and for each mechanical switching means (U1; U2) within the common housing of each of the first-mentioned vacuum switching tube and the further vacuum switching tube..