mhurhangee/ep-ind-claims huggingface dataset:
A floor tile including a fabric material, the floor tile comprising: a balancing layer; an anti-noise layer; a functional intermediate layer; a fabric material layer; and a surface coating layer, wherein the balancing layer configured to be disposed on a floor surface, and to prevent bending of the floor tile is formed on a lower surface of the anti-noise layer, wherein the anti-noise layer is formed on a lower surface of the functional intermediate layer, wherein the functional intermediate layer configured to enhance the adhesion between the anti-noise layer and a fabric material layer is formed on a lower surface of the fabric material layer, wherein the fabric material layer is formed on a lower surface of the surface coating layer, wherein the floor tile is manufactured without using adhesive, wherein the fabric material layer comprises a thermoplastic resin fiber coated with a polymer resin, wherein the functional intermediate layer comprises, based on 100 parts by weight of the polymer resin, 5 to 50 parts by weight of the plasticizer, 3 to 10 parts by weight of the stabilizer, 0 to 20 parts by weight of the filler, and 0.05 to 15 parts by weight of the pigment, in which the polymer resin comprises one or more selected from the group consisting of polyethylene resin, polypropylene resin, ABS (acrylonitrile-butadiene-styrene) resin, polyvinyl chloride resin, acrylic resin, polyester resin, polystyrene resin, polytetrafluoroethylene, rubber, ethylene-vinyl acetate copolymers, and ethylene-propylene copolymers, wherein a coating layer of the fabric material layer and the functional intermediate layer comprise the same kind of polymer resin, wherein the floor tile further comprises an anti-stretch layer, wherein the anti-stretch layer is a glass fiber or nonwoven fabric comprising a polymer resin wherein the balancing layer and the anti-noise layer comprise a polymer resin, a filler and an additive.
A driving mechanism for driving a second link with respect to a first link, the driving mechanism comprising: a driving apparatus that drives the second link relative to the first link; a part to be driven by the driving apparatus; a connecting member connected to the part to be driven; a bearing that includes a first supporting part and a second supporting part and constrains the second link so as to be movable in a predetermined direction, wherein the driving apparatus is fixed to the first link; the first supporting part is fixed to the first link; the second supporting part is fixed to the connecting member; a force sensor for detecting force; the force sensor is provided so as to be movable with the second link in the predetermined direction with respect to the first link, the force sensor being supported by the connecting member and the second link, between the connecting member and the second link; the force is transferred via the part to be driven, the connecting member, the force sensor and the second link as a path where the force is transferred; and the bearing is not provided on a path of the force sensor and the second link, and the second link does not contact with the bearing. a driving apparatus that drives the second link relative to the first link; a part to be driven by the driving apparatus; a connecting member connected to the part to be driven; a bearing that includes a first supporting part and a second supporting part and constrains the second link so as to be movable in a predetermined direction, wherein the driving apparatus is fixed to the first link; the first supporting part is fixed to the first link; the second supporting part is fixed to the connecting member; a force sensor for detecting force; the force sensor is provided so as to be movable with the second link in the predetermined direction with respect to the first link, the force sensor being supported by the connecting member and the second link, between the connecting member and the second link; the force is transferred via the part to be driven, the connecting member, the force sensor and the second link as a path where the force is transferred; and the bearing is not provided on a path of the force sensor and the second link, and the second link does not contact with the bearing.
A thermal cycler apparatus, comprising: a peltier device; an adhesive layer and another layer of adhesive on the peltier device; a well block coupled to the peltier device by the adhesive layer; and a heat sink coupled to the peltier device by the other adhesive layer; wherein the well block is not clamped to the heat sink; wherein the adhesive layer and the other layer of adhesive retain the peltier device adjacent to the well block and the heat sink when the apparatus is turned upside down, without clamping the well block to the heat sink; wherein the adhesive is a thermally conductive silicone paste; wherein the adhesive has an elongation of 15% to 200% calculated according to [{(L,1)-(L,o)}]/(L,o), where L,1 is a length at break and L,o is the original length, and the adhesive has a thermal conductivity at 25°C (77°F) of between 0.7 Watt/meter-K and 2.5 Watt/meter-K, preferably between 0.8 Watt/meter-K and 2 Watt/meter-K, more preferably between 0.9 Watt/meter-K and 1.5 Watt/meter-K; further wherein the well block comprises a plurality of wells, wherein each well comprises a generally cylindrical portion located below a conical portion and a flat bottom portion, and wherein the flat bottom portion is perpendicular to the generally cylindrical portion. a peltier device; an adhesive layer and another layer of adhesive on the peltier device; a well block coupled to the peltier device by the adhesive layer; and a heat sink coupled to the peltier device by the other adhesive layer; wherein the well block is not clamped to the heat sink; wherein the adhesive layer and the other layer of adhesive retain the peltier device adjacent to the well block and the heat sink when the apparatus is turned upside down, without clamping the well block to the heat sink; wherein the adhesive is a thermally conductive silicone paste; wherein the adhesive has an elongation of 15% to 200% calculated according to [{(L,1)-(L,o)}]/(L,o), where L,1 is a length at break and L,o is the original length, and the adhesive has a thermal conductivity at 25°C (77°F) of between 0.7 Watt/meter-K and 2.5 Watt/meter-K, preferably between 0.8 Watt/meter-K and 2 Watt/meter-K, more preferably between 0.9 Watt/meter-K and 1.5 Watt/meter-K; further wherein the well block comprises a plurality of wells, wherein each well comprises a generally cylindrical portion located below a conical portion and a flat bottom portion, and wherein the flat bottom portion is perpendicular to the generally cylindrical portion.
Additive manufacturing machine based on powder bed deposition, this additive manufacturing machine comprising a manufacturing enclosure and at least one heat or energy source used to selectively melt a layer of additive manufacturing powder deposited inside the manufacturing enclosure, the additive manufacturing machine comprising at least one movable powder reception surface capable of being displaced in proximity to a manufacturing zone situated inside the manufacturing enclosure, a powder spreading device making it possible to spread the powder from the movable reception surface to the manufacturing zone, and a device for distributing powder on the movable reception surface, the powder distribution device comprising a buffer tank linked to a powder supply, the additive manufacturing machine being characterized in that a distribution duct links the buffer tank to a powder distribution point situated above the movable reception surface, and in that the distribution duct is mounted on a vibrating device making it possible to vibrate the distribution duct so as to generate a continuous flow of powder in the distribution duct and from the buffer tank to the powder distribution point.
Method for refining molten metal using a converter comprising at least one side wall nozzle mounted to a side wall of the converter lower in a vertical direction than a horizontal pivoting axis of the converter, when the converter is in an upright orientation, the method comprising the following steps: Forming a bath of molten metal inside of the converter; Blowing a mixture of an essentially Oxygen free carrier gas and a powdered material onto and downwardly into a slag formed at least partially on the surface of the bath of molten metal using the at least one side wall nozzle at an injection angle (α 1, α 2) with respect to the horizontal pivoting axis, the injection angle being in between 1° and 60°; characterized in that: The converter further comprises at least one upper nozzle, which is movably assigned to an upper wall of the converter, and wherein the method further comprises: Blowing Oxygen gas onto a surface of the bath of molten metal using the at least one upper nozzle; and The mixture is blown along a main blowing direction (603, 605) of the at least one side wall nozzle into the slag, wherein said main blowing direction (603, 605) of the at least one side wall nozzle forms an angle in between 45° and 89° with a main blowing direction of the upper nozzle. Forming a bath of molten metal inside of the converter; Blowing a mixture of an essentially Oxygen free carrier gas and a powdered material onto and downwardly into a slag formed at least partially on the surface of the bath of molten metal using the at least one side wall nozzle at an injection angle (α 1, α 2) with respect to the horizontal pivoting axis, the injection angle being in between 1° and 60°; characterized in that: The converter further comprises at least one upper nozzle, which is movably assigned to an upper wall of the converter, and wherein the method further comprises: Blowing Oxygen gas onto a surface of the bath of molten metal using the at least one upper nozzle; and The mixture is blown along a main blowing direction (603, 605) of the at least one side wall nozzle into the slag, wherein said main blowing direction (603, 605) of the at least one side wall nozzle forms an angle in between 45° and 89° with a main blowing direction of the upper nozzle. Blowing Oxygen gas onto a surface of the bath of molten metal using the at least one upper nozzle; and The mixture is blown along a main blowing direction (603, 605) of the at least one side wall nozzle into the slag, wherein said main blowing direction (603, 605) of the at least one side wall nozzle forms an angle in between 45° and 89° with a main blowing direction of the upper nozzle.
A process for coating a soft-magnetic powder, the coating comprising at least one fluorine containing composition containing a composition of formula: Si 1-0,75c M c O 2-0,5c F d wherein c is in the range of 0.01 to 0.5, d is in the range of 0.04 to 2, and M is B or Al, wherein the soft-magnetic powder is mixed with a silicon-based solution containing at least one soluble fluorination agent, wherein the at least one soluble fluorination agent is a compound of formula [MF 4] wherein M is B or Al; and Q is a cationic group selected from H +, Na +, K +, Rb +, Cs + or [NR 1 4] +, wherein R 1 is independently selected from the group consisting of -H, -C 1-12 -alkyl, -C 2-12 -alkenyl, and -C 6-18 -aryl, each of which may be substituted with at least one group represented by the formula -OR 2, wherein R 2 is independently selected from -H, -C 1-12 -alkyl, -C 2-12 -alkenyl, and -C 1-18 -aryl. c is in the range of 0.01 to 0.5, d is in the range of 0.04 to 2, and M is B or Al, M is B or Al; and Q is a cationic group selected from H +, Na +, K +, Rb +, Cs + or [NR 1 4] +, wherein R 1 is independently selected from the group consisting of -H, -C 1-12 -alkyl, -C 2-12 -alkenyl, and -C 6-18 -aryl, each of which may be substituted with at least one group represented by the formula -OR 2, wherein R 2 is independently selected from -H, -C 1-12 -alkyl, -C 2-12 -alkenyl, and -C 1-18 -aryl.
A control device for an AC electric vehicle that is applied to a configuration in which an auxiliary power unit that supplies power to a load including lighting and air-conditioning is connected to an intermediate DC circuit unit between a converter that converts an AC voltage input through a main transformer to a DC voltage and an inverter that converts the DC voltage to an AC voltage, characterized in that the control device is configured to change a carrier frequency of the converter on a basis of either: a) an initial temperature, that is temperature of a converter main circuit element at a time when a vehicle is stopped, and input current of the auxiliary power unit, by increasing the carrier frequency of the converter when the input current of the auxiliary power unit decreases, and by increasing the carrier frequency of the converter when the initial temperature of the converter main circuit element is higher, such that a temperature variation of the converter main circuit element in a vehicle stopped state is reduced; or b) a difference value between the initial temperature and detected real-time temperature of the converter main circuit element, by increasing the carrier frequency of the converter when the difference value is large, and by reducing the carrier frequency of the converter when the difference value is small, such that a temperature variation of the converter main circuit element in a vehicle stopped state is reduced. a) an initial temperature, that is temperature of a converter main circuit element at a time when a vehicle is stopped, and input current of the auxiliary power unit, by increasing the carrier frequency of the converter when the input current of the auxiliary power unit decreases, and by increasing the carrier frequency of the converter when the initial temperature of the converter main circuit element is higher, such that a temperature variation of the converter main circuit element in a vehicle stopped state is reduced; or b) a difference value between the initial temperature and detected real-time temperature of the converter main circuit element, by increasing the carrier frequency of the converter when the difference value is large, and by reducing the carrier frequency of the converter when the difference value is small, such that a temperature variation of the converter main circuit element in a vehicle stopped state is reduced.
A low-power load arrangement comprising - a low-power light source; - a driver (31, 32) for driving the low-power light source in a pulsed mode of operation; - input terminals for connecting to a self-oscillating electronic transformer comprising a pair of bipolar junction transistors for self-oscillation, wherein the electronic transformer is realized for converting a mains power supply to a power supply matched to a normal-power load and arranged to provide an output current, characterized in that the low-power load arrangement further comprises a reverse current generating means (Lp, SB) arranged to provide a reverse current (I rev_LP, I rev_SB) whenever a voltage across the input terminals commutates during operation of the electronic transformer, the reverse current having a direction of current flow that is opposite to the output current of the electronic transformer thereby transferring energy to the electronic transformer so as to sustain self-oscillation of the electronic transformer, wherein the reverse current generating means comprises an inductor connected across the input terminals or a bridgeless synchronous boost converter arranged across the input terminals. - a low-power light source; - a driver (31, 32) for driving the low-power light source in a pulsed mode of operation; - input terminals for connecting to a self-oscillating electronic transformer comprising a pair of bipolar junction transistors for self-oscillation, wherein the electronic transformer is realized for converting a mains power supply to a power supply matched to a normal-power load and arranged to provide an output current,
A first reproducing device (10, 10A), comprising: a reproducing section for reproducing an audio or moving picture file stored in a storage medium; a memory for temporarily accumulating data of the audio or moving picture file to be reproduced by the reproducing section; an operating section for receiving an operation input from a user; a main output section for outputting the data read from the memory based on the operation input received by the operating section to a first system of a mixer; a control interface section for receiving a control signal from a second reproducing device having the same configuration as the first reproducing device (10, 10A); and a sub-output section for outputting the data read from the memory based on the control signal received by the control interface section to a second system of a mixer; wherein the first reproducing device (10, 10A) is configured so that, if the control interface section is connected to a second reproducing device having the same configuration as the first reproducing device (10, 10A), either one of the first and second reproducing devices (10, 10A, 10B) can be used to remotely control the other of the first and second reproducing devices (10, 10A, 10B). a reproducing section for reproducing an audio or moving picture file stored in a storage medium; a memory for temporarily accumulating data of the audio or moving picture file to be reproduced by the reproducing section; an operating section for receiving an operation input from a user; a main output section for outputting the data read from the memory based on the operation input received by the operating section to a first system of a mixer; a control interface section for receiving a control signal from a second reproducing device having the same configuration as the first reproducing device (10, 10A); and a sub-output section for outputting the data read from the memory based on the control signal received by the control interface section to a second system of a mixer;
An assembly for a retractable thruster suitable for attachment to a hull of a maritime vessel, said assembly comprising a thruster accommodating structure, from which the thruster may be deployed into the water, and retracted into from the water, where the thruster accommodating structure is provided with a drive assembly and a thruster suspended by the drive assembly, characterized in that said drive assembly includes a thruster rotating device comprising a lower housing accommodating a motor assembly, and further exhibiting numerous drive assembly guiding means arranged at a mutual distance along the periphery of the lower housing to engage with elongate guiding means arranged in the thruster accommodating structure, extending in the longitudinal axis of the latter, in a sliding manner, and including a thruster deploying and retracting device comprising an upper housing exhibiting threads in its periphery to engage with corresponding guiding means of the thruster accommodating structure in a sliding manner to enable rotation of the upper housing, and displacement of the drive assembly, about the longitudinal axis of the thruster accommodating structure, the lower housing further accommodating a switching device (211, 214, 217, 218, 219, 220) that directs power from the motor assembly either to the thruster deploying and retracting device to enable movement of the thruster along a longitudinal axis of the thruster accommodating structure, or to the thruster to enable rotation of the thruster about the longitudinal axis of the thruster accommodating structure to a desired direction and hence allow steering and propulsion of the vessel.
An illumination source comprising an LED light source generating a first divergent light field with a first divergence (α1), a first optical element arranged and structured to receive said first divergent light field and to generate a second divergent light field with a second divergence (α2), wherein said second divergence (α2) is smaller than said first divergence (α1), and a second optical element comprising a variable lens having a lens interface with variable curvature, wherein said variable lens is arranged and structured to receive said second divergent light field and to generate a third light field with variable divergence, characterized in that said second divergence (α2) is at least 10°.
A relaying device comprising: a network interface provided at an upstream end of a data communication network and receiving an audio signal as a group of packet trains, via the a network; a wireless apparatus interface to which a repeater is connected; an uplink packet processing unit configured to encode an audio signal input from the wireless apparatus interface; and a downlink packet processing unit configured to decode the packet train of the audio signal received by the network interface, a voice buffer temporarily storing the decoded audio signal; the relaying device characterized by comprising: a control unit starting buffering the audio signal in the voice buffer and requesting the repeater to reserve a wireless communication channel when a leading packet of the packet trains is received, and transferring the buffered audio signal with a push-to-talk signal to the repeater after a reply of the reservation of the wireless communication channel is received by the repeater, wherein said repeater comprising a half-duplex communication device. a network interface provided at an upstream end of a data communication network and receiving an audio signal as a group of packet trains, via the a network; a wireless apparatus interface to which a repeater is connected; an uplink packet processing unit configured to encode an audio signal input from the wireless apparatus interface; and a downlink packet processing unit configured to decode the packet train of the audio signal received by the network interface, a voice buffer temporarily storing the decoded audio signal; the relaying device characterized by comprising: a control unit starting buffering the audio signal in the voice buffer and requesting the repeater to reserve a wireless communication channel when a leading packet of the packet trains is received, and transferring the buffered audio signal with a push-to-talk signal to the repeater after a reply of the reservation of the wireless communication channel is received by the repeater, wherein said repeater comprising a half-duplex communication device. a control unit starting buffering the audio signal in the voice buffer and requesting the repeater to reserve a wireless communication channel when a leading packet of the packet trains is received, and transferring the buffered audio signal with a push-to-talk signal to the repeater after a reply of the reservation of the wireless communication channel is received by the repeater, wherein said repeater comprising a half-duplex communication device.
A biodegradable polyesteramide comprising, ester groups, amide groups, and disulphide linkages in the backbone of the PEA, wherein the polyesteramide comprises residues of alpha-amino acids, diols, aliphatic dicarboxylic acids, and optionally diamines, wherein at least one of the aliphatic dicarboxylic acids, diols, or, when present, diamines comprises a disulphide linkage.