mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: coupling a rigid tube (92, 131) to a drive cable that comprises a plurality of coiled wires, characterized in that the rigid tube (92,131) is coupled to the drive cable by: placing ends of the drive cable and the rigid tube (92, 131) at a given location within a butt-welding overtube, the ends of the drive cable and the rigid tube (92, 131) being visible when they are disposed at the given location within the butt-welding overtube via a window defined by the butt-welding overtube, and the placement of the drive cable within the butt-welding overtube being such that a helical groove defined by a portion of the butt-welding overtube is disposed over the drive cable; and forming welding rings around the butt-welding overtube. coupling a rigid tube (92, 131) to a drive cable that comprises a plurality of coiled wires, characterized in that the rigid tube (92,131) is coupled to the drive cable by: placing ends of the drive cable and the rigid tube (92, 131) at a given location within a butt-welding overtube, the ends of the drive cable and the rigid tube (92, 131) being visible when they are disposed at the given location within the butt-welding overtube via a window defined by the butt-welding overtube, and the placement of the drive cable within the butt-welding overtube being such that a helical groove defined by a portion of the butt-welding overtube is disposed over the drive cable; and forming welding rings around the butt-welding overtube. placing ends of the drive cable and the rigid tube (92, 131) at a given location within a butt-welding overtube, the ends of the drive cable and the rigid tube (92, 131) being visible when they are disposed at the given location within the butt-welding overtube via a window defined by the butt-welding overtube, and the placement of the drive cable within the butt-welding overtube being such that a helical groove defined by a portion of the butt-welding overtube is disposed over the drive cable; and the ends of the drive cable and the rigid tube (92, 131) being visible when they are disposed at the given location within the butt-welding overtube via a window defined by the butt-welding overtube, and the placement of the drive cable within the butt-welding overtube being such that a helical groove defined by a portion of the butt-welding overtube is disposed over the drive cable; and forming welding rings around the butt-welding overtube.
A measurement device to measure a characteristic electric property of a device to be analyzed, the measurement device comprising: a first measurement node and a second measurement node configured to connect a device to be analyzed; a measurement circuit coupled to the first measurement node and the second measurement node, the measurement circuit comprising at least three current injection nodes to inject at least three electric currents (I1, I2, I3) into the measurement circuit, wherein the measurement circuit further comprises at least one (current/voltage) sensing node configured to allow for a current/voltage measurement at the at least one (current/voltage) sensing node. a first measurement node and a second measurement node configured to connect a device to be analyzed; a measurement circuit coupled to the first measurement node and the second measurement node, the measurement circuit comprising at least three current injection nodes to inject at least three electric currents (I1, I2, I3) into the measurement circuit, wherein the measurement circuit further comprises at least one (current/voltage) sensing node configured to allow for a current/voltage measurement at the at least one (current/voltage) sensing node.
Vacuum cleaner for cleaning and caring for floor surfaces, comprising a housing, a fan for generating a vacuum for picking up dust by means of an air flow, the fan being arranged in a fan space of the housing, and a dust chamber in the housing which is connected to the fan space for receiving a dust bag having a filter bag for cleaning dust from the received air, characterised in that the dust chamber has a transparent housing part, at least one spring element (7, 7a) being arranged in the dust chamber, which spring element is designed to compress a dust bag received in the dust chamber counter to an increasing expansion of the filter bag due to an increasing filling level of the filter bag with dust.
An ultrasonic probe, comprising: a transducer configured to be rotatably provided: a shaft configured to have the transducer mounted thereto; and a supporting member configured to be rotatably supporting the shaft wherein the supporting member is deformed by an outside impact and returned to an original state when the outside impact is removed, characterized in that the supporting member includes a first supporting unit and a second supporting unit, and the second supporting unit is provided with an insertion hole into which the shaft is inserted and the first supporting unit is mounted to a base frame and provided with a buffer unit in the shape of a hole and positioned below the insertion hole, the buffer unit configured to ease the impact applied to the supporting member and to prevent the shaft from being deformed by the outside impact. a shaft configured to have the transducer mounted thereto; and a supporting member configured to be rotatably supporting the shaft wherein the supporting member is deformed by an outside impact and returned to an original state when the outside impact is removed, characterized in that the supporting member includes a first supporting unit and a second supporting unit, and the second supporting unit is provided with an insertion hole into which the shaft is inserted and the first supporting unit is mounted to a base frame and provided with a buffer unit in the shape of a hole and positioned below the insertion hole, the buffer unit configured to ease the impact applied to the supporting member and to prevent the shaft from being deformed by the outside impact.
Electromechanical brake system for a motor vehicle, comprising four wheel brake devices, comprising four primary electric motors, comprising four secondary electric motors and comprising four controllers, - wherein the controllers are designed to detect and/or evaluate sensor data from sensors assigned to the wheel brake devices and/or to the motor vehicle, - wherein a respective one of the primary electric motors and a respective one of the secondary electric motors are assigned to each of the wheel brake devices for operating the respective wheel brake devices, and - wherein each of the controllers is assigned to one of the primary electric motors of one of the wheel brake devices and one of the secondary electric motors of another of the wheel brake devices for actuating the electric motors (3, 4). - wherein the controllers are designed to detect and/or evaluate sensor data from sensors assigned to the wheel brake devices and/or to the motor vehicle, - wherein a respective one of the primary electric motors and a respective one of the secondary electric motors are assigned to each of the wheel brake devices for operating the respective wheel brake devices, and - wherein each of the controllers is assigned to one of the primary electric motors of one of the wheel brake devices and one of the secondary electric motors of another of the wheel brake devices for actuating the electric motors (3, 4).
An ophthalmic lens for at least one of slowing, retarding or preventing myopia progression, the ophthalmic lens comprising: an optic zone configured with a positive asymmetric aberration for creating a physiological effect on the eye, the positive asymmetric aberration including asymmetric radial power profiles with increasing dioptric power from a center to a margin of the optic zone and wherein the asymmetric radial power profiles are variable along different radial meridians; characterized in that the asymmetric radial power profiles are described by P(r,θ) = ∑ i = 0 ∞ C i θ r 2 i, where r is the radial distance from the center of the optic zone, 2 i is the degree of the polynomial terms, the C i ( θ) are the polynomial coefficients and are functions of θ, and θ is the angle between a specific meridian and a reference axis, and wherein at least one of the C i ( θ) is a first degree polynomial in θ. an optic zone configured with a positive asymmetric aberration for creating a physiological effect on the eye, the positive asymmetric aberration including asymmetric radial power profiles with increasing dioptric power from a center to a margin of the optic zone and wherein the asymmetric radial power profiles are variable along different radial meridians; characterized in that the asymmetric radial power profiles are described by P(r,θ) = ∑ i = 0 ∞ C i θ r 2 i, where r is the radial distance from the center of the optic zone, 2 i is the degree of the polynomial terms, the C i ( θ) are the polynomial coefficients and are functions of θ, and θ is the angle between a specific meridian and a reference axis, and wherein at least one of the C i ( θ) is a first degree polynomial in θ.
A golf ball comprising a cured product of a golf ball rubber composition as a constituent member, wherein the cured product is obtained by curing the golf ball rubber composition containing (a) a base rubber, (b) an α,β-unsaturated carboxylic acid having 3 to 8 carbon atoms and/or a metal salt thereof as a co-crosslinking agent, and (c) a crosslinking initiator, and the cured product satisfies the following mathematical formula: Y < 0.1 × X − 1.30 in the formula, Y represents an effective crosslinking density of the cured product of the rubber composition (mmol/cc), and X represents an amount (parts by mass) of the component (b) with respect to 100 parts by mass of (a) the base rubber.
A Node B comprising: a receiver to receive an uplink data packet from a user equipment using synchronous transmission timing based on a synchronous hybrid automatic repeat request protocol, and a transmitter to transmit in parallel a first feedback information element and a second control information element to the user equipment, wherein the first feedback information element includes a negative acknowledgement message signaling retransmission of an uplink data packet from the user equipment and the second control information element indicates a modulation and coding scheme for the retransmission, wherein the receiver is configured to receive the retransmitted uplink data packet from the user equipment according to the modulation and coding scheme. a receiver to receive an uplink data packet from a user equipment using synchronous transmission timing based on a synchronous hybrid automatic repeat request protocol, and a transmitter to transmit in parallel a first feedback information element and a second control information element to the user equipment, wherein the first feedback information element includes a negative acknowledgement message signaling retransmission of an uplink data packet from the user equipment and the second control information element indicates a modulation and coding scheme for the retransmission, wherein the receiver is configured to receive the retransmitted uplink data packet from the user equipment according to the modulation and coding scheme.
A method of phase-locking optical signals, comprising the steps of: receiving a WDM communication signal having first and second beacon lines from a first frequency comb, wherein the first frequency comb is produced using a first optical-frequency comb source OFCS; generating a second frequency comb using a second OFCS (110b, 300), optically filtering the second frequency comb to select first and second comb lines; optically mixing said first comb line with a first copy of the received WDM signal to produce a first pair of optical interference signals; optically_mixing said second comb line with a second copy of the received WDM signal to produce a second pair of optical interference signals; and based on the first and second pairs of optical interference signals, tuning the second OFCS to lock (i) the phase of the first comb line to the phase of the first beacon line and (ii) the phase of the second comb line to the phase of the second beacon line to substantially achieve a phase-lock between the first and second frequency combs. receiving a WDM communication signal having first and second beacon lines from a first frequency comb, wherein the first frequency comb is produced using a first optical-frequency comb source OFCS; generating a second frequency comb using a second OFCS (110b, 300), optically filtering the second frequency comb to select first and second comb lines; optically mixing said first comb line with a first copy of the received WDM signal to produce a first pair of optical interference signals; optically_mixing said second comb line with a second copy of the received WDM signal to produce a second pair of optical interference signals; and based on the first and second pairs of optical interference signals, tuning the second OFCS to lock (i) the phase of the first comb line to the phase of the first beacon line and (ii) the phase of the second comb line to the phase of the second beacon line to substantially achieve a phase-lock between the first and second frequency combs.
Cutting system, wherein the cutting system is designed to extend in the direction of a first system axis extending horizontally along a width of the cutting system, in the direction of a second system axis extending vertically to the first system axis, and in the direction of a third system axis extending along a depth of the cutting system orthogonally to the first system axis and the second system axis, having a carrier, a tool (3; 4), received on the carrier, in the form of a multi-blade saw comprising a spindle shaft (13; 14), the working direction of said tool being in the direction of the first system axis, wherein the tool (3; 4) is driven by means of the spindle shaft (13; 14), and a further tool, received on the carrier, in the form of a chop saw comprising a further spindle shaft, the working direction of said further tool being in the direction of the first system axis, wherein the further tool is driven by means of the further spindle shaft, wherein the tools (3; 4; 5) are used to machine a blank, and wherein the tools (3; 4; 5) are arranged in series in the direction of the first system axis, and wherein the cutting system has a carrier element received movably on the carrier along the first system axis, wherein the carrier element is provided for holding the blank, and wherein the carrier element is rotatable about the second system axis, characterized in that the carrier element is also received movably on the carrier along the second system axis and in that the spindle shaft (13; 14) is designed to be orthogonal to the further spindle shaft. tools (3; 4; 5) are used to machine a blank, and wherein the tools (3; 4; 5) are arranged in series in the direction of the first system axis, and wherein the cutting system has a carrier element received movably on the carrier along the first system axis, wherein the carrier element is provided for holding the blank, and wherein the carrier element is rotatable about the second system axis, characterized in that the carrier element is also received movably on the carrier along the second system axis and in that the spindle shaft (13; 14) is designed to be orthogonal to the further spindle shaft.
A compressor comprising: a rotating shaft including an eccentric portion; a motor including a rotor connected to the rotating shaft; a compression mechanism portion driven by the motor via the rotating shaft; a first balance weight provided at one end in an axial direction of the rotor on a side facing the compression mechanism portion; and a second balance weight provided at the other end in the axial direction of the rotor, characterised in that the first balance weight and the second balance weight are disposed in such a manner that at least either of a center of gravity of the first balance weight or a center of gravity of the second balance weight is positioned at a preset lead angle in a rotation direction of the rotor with respect to a reference plane passing through a rotation center along an eccentric direction of the eccentric portion of the rotating shaft. a rotating shaft including an eccentric portion; a motor including a rotor connected to the rotating shaft; a compression mechanism portion driven by the motor via the rotating shaft; a first balance weight provided at one end in an axial direction of the rotor on a side facing the compression mechanism portion; and a second balance weight provided at the other end in the axial direction of the rotor, characterised in that the first balance weight and the second balance weight are disposed in such a manner that at least either of a center of gravity of the first balance weight or a center of gravity of the second balance weight is positioned at a preset lead angle in a rotation direction of the rotor with respect to a reference plane passing through a rotation center along an eccentric direction of the eccentric portion of the rotating shaft.
An air filter for an air conditioning system of a railway vehicle, which is configured to filter air along an air flow direction, the air filter comprising: - a first layer of a first filter medium with a first medium surface; - a second layer of a second filter medium with a second medium surface; and - a peripheral frame to hold the first layer and the second layer adjacent to each other, wherein the second surface medium area is non-flat and provides a larger filter surface area than the first layer, characterized in that the first layer is arranged to be upstream from the second layer and comprises a lower packing density than the second layer, the second layer comprises a pleated layer material and the first layer comprises a flat surface and is glued on one side of the pleated second layer to provide air cavities between the first layer and the second layer, and the peripheral frame includes two kinds of vertical flaps, one per side, which are pleated and glued to the first layer, and the second layer, which is glued to the peripheral frame. - a first layer of a first filter medium with a first medium surface; - a second layer of a second filter medium with a second medium surface; and - a peripheral frame to hold the first layer and the second layer adjacent to each other, wherein the second surface medium area is non-flat and provides a larger filter surface area than the first layer, the first layer is arranged to be upstream from the second layer and comprises a lower packing density than the second layer, the second layer comprises a pleated layer material and the first layer comprises a flat surface and is glued on one side of the pleated second layer to provide air cavities between the first layer and the second layer, and the peripheral frame includes two kinds of vertical flaps, one per side, which are pleated and glued to the first layer, and the second layer, which is glued to the peripheral frame.
An adapter for installing a direct sample analysis device on a mass spectrometer, wherein the adapter is configured to permit coupling of the direct sample analysis device to the mass spectrometer while maintaining a substantially constant vacuum pressure in the mass spectrometer, the adapter comprising: an internal capillary sleeve configured to couple to a capillary inlet of the mass spectrometer, while maintaining the substantially constant vacuum pressure in the mass spectrometer and, through a friction fit between inner surfaces of the internal capillary sleeve and outer surfaces of the capillary inlet, in which the capillary sleeve comprises arms (312, 314) that engage outer surfaces of the capillary inlet; an external sleeve coupled to the internal capillary sleeve, and an insulator between the internal capillary sleeve and the external sleeve to electrically decouple the internal capillary sleeve from the external sleeve, said external sleeve coupled to said insulator through a friction fit, in which the adapter is configured to provide fluidic coupling between a sample holder of the direct sample analysis device and the mass spectrometer through the capillary inlet while maintaining the substantially constant vacuum pressure in the mass spectrometer when the capillary sleeve is coupled to the capillary inlet, the external sleeve is coupled to the capillary sleeve and the direct sample analysis device is coupled to the external sleeve. an internal capillary sleeve configured to couple to a capillary inlet of the mass spectrometer, while maintaining the substantially constant vacuum pressure in the mass spectrometer and, through a friction fit between inner surfaces of the internal capillary sleeve and outer surfaces of the capillary inlet, in which the capillary sleeve comprises arms (312, 314) that engage outer surfaces of the capillary inlet; an external sleeve coupled to the internal capillary sleeve, and an insulator between the internal capillary sleeve and the external sleeve to electrically decouple the internal capillary sleeve from the external sleeve, said external sleeve coupled to said insulator through a friction fit, in which the adapter is configured to provide fluidic coupling between a sample holder of the direct sample analysis device and the mass spectrometer through the capillary inlet while maintaining the substantially constant vacuum pressure in the mass spectrometer when the capillary sleeve is coupled to the capillary inlet, the external sleeve is coupled to the capillary sleeve and the direct sample analysis device is coupled to the external sleeve.
A pneumatic liquid on-line automatic balancer of a rotor includes a sealed balancing disk rotating with a balanced rotor about a central axis and a pressure transfer device mated with the sealed balancing disk,at least two pairs of centrosymmetric chamber (31, 32, 33, 34) filled with appropriate balancing liquid are evenly distributed in the sealed balancing disk, the pressure transfer device controls compressed gas in and out of the chamber and makes the balancing liquid controllably flow in each pair of chambers to achieve the dynamic balance of the rotor, a communicating channel of the balancing liquid is provided between the outer edges of each pair of the chambers, characterized in that, the communicating channel of the balancing liquid is one, the center of the communicating channel of the balancing liquid is communicated with the balancing channel pointed to the center of rotation, another end of the balancing channel is communicated with an emptying channel axially located near the center of rotation, and another end of the emptying channel is opened to atmosphere.
Use of zerumbone for a non therapeutical cosmetic topical treatment of skin firming via the protection and repairing of the extracellular matrix of the dermis.
A method of producing a cell preparation for the promotion of angiogenesis or axon outgrowth, comprising culturing a cell population containing microglia or monocytes under conditions of a low oxygen concentration of less than 1% and a low sugar concentration of not more than 1.0 g/L for not less than 12hr and less than 24hr, thereby producing microglia or monocytes having an ability to promote angiogenesis and axon outgrowth, wherein the sugar is selected from the group consisting of glucose, galactose and fructose.