mhurhangee/ep-ind-claims huggingface dataset:
A patient lifting frame for use with an invalid hoist for lifting and supporting an invalid patient, comprising a pair of suspension side bars each of which has an upper end portion and a lower end portion and each of which is provided at its upper end portion with a linkage (2,3) for connection to a spreader bar of the invalid hoist and at its lower end portion with a suspension mounting (one per suspension side bar) to which are attached or attachable: a pair of patient upper body support means (13,15,16) which together comprise a pair of underarm support elements for passing beneath the armpits of the patient and a pair of padded side plates (15,16), connected one to each of the underarm support elements of the patient upper body support means (13,15,16), for engaging against opposite sides of the patient's ribcage; and a patient lower body support means (28, 28') for engaging and supporting the posterior or upper legs of the patient, the suspension mountings being connected together by a link bar assembly; characterized in that: each end of the link bar assembly is connected to an associated one of the suspension mountings through a universal joint, each universal joint and link bar assembly combination being such as to permit pivotal mouvement of the associated suspension mounting relative to the link bar assembly about three mutually perpendicular axes (X, Y, Z). a pair of patient upper body support means (13,15,16) which together comprise a pair of underarm support elements for passing beneath the armpits of the patient and a pair of padded side plates (15,16), connected one to each of the underarm support elements of the patient upper body support means (13,15,16), for engaging against opposite sides of the patient's ribcage; and a patient lower body support means (28, 28') for engaging and supporting the posterior or upper legs of the patient,
A bumper cross member for a motor vehicle, said bumper cross member being produced from an extruded hollow profile and comprising: a front side forming an impact side; a rear side in opposition to the front side; end zones (8, 9) configured for connection to the motor vehicle; a central zone extending between the end zones (8, 9) and bent toward the impact side; and top and bottom sides connecting the rear side with the front side, each having a projecting flange (6, 7), characterized in that each projecting flange (6, 7) is separated from the rear side by a separation cut configured to end shy of the end zones (8, 9) so that the flanges (6, 7) are connected with the bumper cross member in the end zones (8, 9). a front side forming an impact side; a rear side in opposition to the front side; end zones (8, 9) configured for connection to the motor vehicle; a central zone extending between the end zones (8, 9) and bent toward the impact side; and top and bottom sides connecting the rear side with the front side, each having a projecting flange (6, 7),
A drive assembly of an instrument drive unit for use with a surgical instrument, the drive assembly comprising a drive element, wherein longitudinal translation of the drive element is configured to drive a function of the surgical instrument, characterised in that the drive assembly further comprises: a drive screw defining a longitudinal axis, the drive screw including a threaded portion; a drive nut threadedly engaged with the threaded portion of the drive screw such that rotation of the drive screw results in longitudinal movement of the drive nut; a follower being longitudinally slidable with respect to the drive screw; a biasing element disposed in mechanical cooperation with the drive nut and the follower; and wherein the drive element is disposed in mechanical cooperation with the follower. a drive screw defining a longitudinal axis, the drive screw including a threaded portion; a drive nut threadedly engaged with the threaded portion of the drive screw such that rotation of the drive screw results in longitudinal movement of the drive nut; a follower being longitudinally slidable with respect to the drive screw; a biasing element disposed in mechanical cooperation with the drive nut and the follower; and wherein the drive element is disposed in mechanical cooperation with the follower.
A biped robot for performing operations on objects having an average height H avg and standard deviation σ in an operating space, the robot having at least a body, two leg linkages each swingably connected to the body through hip joints (10R,12R,14R), and two arm linkages each swingably connected to the body through shoulder joints (30R,32R,34R), such that said robot walks over a floor surface In the operating space by swinging the leg linkages and performs operations on objects In the operating space by driving at least the arm linkages, characterized in that: a height from ends of the leg linkages, that contact the floor surface, to the shoulder joints (30R,32R,34R), when the robot is in an upright posture, is determined to be a value that falls within a range of an averaged value (Havg), of heights of the objects from the floor surface, ±1⁄2 a standard deviation σ of the averaged value. a height from ends of the leg linkages, that contact the floor surface, to the shoulder joints (30R,32R,34R), when the robot is in an upright posture, is determined to be a value that falls within a range of an averaged value (Havg), of heights of the objects from the floor surface, ±1⁄2 a standard deviation σ of the averaged value.
A multi-stage optical fiber amplifier, comprising: a first stage, comprising: a single-clad optical fiber comprising a gain medium; and a first pump diode arranged to optically pump the single-clad optical fiber, wherein optically pumping the single-clad optical fiber amplifies optical signals in a wavelength range transmitted through the gain medium of the single-clad optical fiber; a second stage, comprising: a dual-clad optical fiber comprising a gain medium, wherein the dual-clad optical fiber is optically coupled to the single-clad optical fiber at a fusion splice and arranged to receive optical signals from the single-clad optical fiber; and a second pump diode arranged to optically pump the dual-clad optical fiber, wherein optically pumping the dual-clad optical fiber amplifies optical signals in the wavelength range transmitted through the gain medium of the dual-clad optical fiber; and an optically isolating section, wherein the optically isolating section is configured to prevent reverse propagating electromagnetic radiation from the second stage from being transmitted to the single-clad optical fiber; wherein the second stage further comprises a polymer layer that at least partially surrounds the dual-clad optical fiber, and wherein the polymer layer is optically transparent; and wherein the polymer layer comprises a polymer material and an additional material, wherein the additional material increases a thermal conductivity of the polymer layer. a first stage, comprising: a single-clad optical fiber comprising a gain medium; and a first pump diode arranged to optically pump the single-clad optical fiber, wherein optically pumping the single-clad optical fiber amplifies optical signals in a wavelength range transmitted through the gain medium of the single-clad optical fiber; a single-clad optical fiber comprising a gain medium; and a first pump diode arranged to optically pump the single-clad optical fiber, wherein optically pumping the single-clad optical fiber amplifies optical signals in a wavelength range transmitted through the gain medium of the single-clad optical fiber; a second stage, comprising: a dual-clad optical fiber comprising a gain medium, wherein the dual-clad optical fiber is optically coupled to the single-clad optical fiber at a fusion splice and arranged to receive optical signals from the single-clad optical fiber; and a second pump diode arranged to optically pump the dual-clad optical fiber, wherein optically pumping the dual-clad optical fiber amplifies optical signals in the wavelength range transmitted through the gain medium of the dual-clad optical fiber; and an optically isolating section, wherein the optically isolating section is configured to prevent reverse propagating electromagnetic radiation from the second stage from being transmitted to the single-clad optical fiber;
A machine tool comprising: a main spindle configured to rotate a workpiece about a shaft center thereof; a tool configured to process the workpiece; a feeder configured to move the tool; an input receiver configured to receive an input regarding an eccentric distance D and a radius R; and a controller configured to control the movement by the feeder such as to set a virtual circle having a radius of the distance D the input receiver receives, to set an offset virtual circle in which a center of the virtual circle is offset from the shaft center of the workpiece by the radius R the input receiver receives in the radial direction of the workpiece, and to move the tool along a circumference of the offset virtual circle in relation to a rotation of the workpiece by the main spindle, wherein the machine tool processes an eccentric portion having the radius R at a position from the shaft center of the workpiece by the distance D, characterized in that the controller is configured to set a second offset virtual circle (V2') having a radius of the distance D and a center (C2') at a position offset from the shaft center by a radius (R'), and to control the feeder such that a cutting edge of the tool turns or moves along a circumference of the second offset virtual circle (V2') after terminating the process of the workpiece and before stopping the rotation of the workpiece and the movement of the tool. a main spindle configured to rotate a workpiece about a shaft center thereof; a tool configured to process the workpiece; a feeder configured to move the tool; an input receiver configured to receive an input regarding an eccentric distance D and a radius R; and a controller configured to control the movement by the feeder such as to set a virtual circle having a radius of the distance D the input receiver receives, to set an offset virtual circle in which a center of the virtual circle is offset from the shaft center of the workpiece by the radius R the input receiver receives in the radial direction of the workpiece, and to move the tool along a circumference of the offset virtual circle in relation to a rotation of the workpiece by the main spindle, wherein the machine tool processes an eccentric portion having the radius R at a position from the shaft center of the workpiece by the distance D, characterized in that the controller is configured to set a second offset virtual circle (V2') having a radius of the distance D and a center (C2') at a position offset from the shaft center by a radius (R'), and to control the feeder such that a cutting edge of the tool turns or moves along a circumference of the second offset virtual circle (V2') after terminating the process of the workpiece and before stopping the rotation of the workpiece and the movement of the tool.
A method for managing a transmission of photons, the method comprising: identifying a number of parameters for transmitting the photons as a beam in a liquid using a number of characteristics of the liquid to form a number of selected parameters; and transmitting the photons in the liquid as the beam to a target using the number of selected parameters to form the transmission of the photons, wherein the step of transmitting the photons in the liquid as the beam to the target using the number of selected parameters comprises: changing the number of characteristics of the liquid along a path for the beam using the number of selected parameters; and transmitting the beam along the path. identifying a number of parameters for transmitting the photons as a beam in a liquid using a number of characteristics of the liquid to form a number of selected parameters; and transmitting the photons in the liquid as the beam to a target using the number of selected parameters to form the transmission of the photons, wherein the step of transmitting the photons in the liquid as the beam to the target using the number of selected parameters comprises: changing the number of characteristics of the liquid along a path for the beam using the number of selected parameters; and transmitting the beam along the path. changing the number of characteristics of the liquid along a path for the beam using the number of selected parameters; and transmitting the beam along the path.
A post-colour treatment method of protecting dyed hair color from fading or wash-out during exposure to air and/or shampooing which comprises treating said dyed hair in a leave-in manner with a composition which comprises a terpolymer of vinyl pyrrolidone, dimethylaminopropyl methacrylamide (DMAPMA) and methacryloylaminopropyl lauryldimonium chloride (MAPLDAC).
A speaker module, comprising: a housing providing an internal space; first to fourth speaker units (652, 654, 656, 658) installed in the housing in a vertical direction, wherein the first and fourth speaker units (652, 658) face to a rear side of the speaker module and the second and third speaker units (654, 656) face to a front side of the speaker module; a first shield rib disposed between the first speaker unit and the second unit; a second shield rib disposed between the third speaker unit and the fourth unit; a front common space formed by the first and second shield ribs (672, 674) on the front side of the speaker module; a first opening connected to the outside and to the front common space of the second and third speaker units (654, 656); a second opening connected to the outside and to a rear common space of the second and third speaker units (654, 656); a first through hole connecting a front space of the first speaker unit to the front common space; a second through hole connecting a rear space of the first speaker unit to the rear common space; a third through hole connecting a rear space of the fourth speaker unit to the rear common space; a fourth through hole connecting a front space of the fourth speaker unit to the front common space; and wherein an edge of the first speaker unit contacts an edge of the second speaker unit. a housing providing an internal space; first to fourth speaker units (652, 654, 656, 658) installed in the housing in a vertical direction, wherein the first and fourth speaker units (652, 658) face to a rear side of the speaker module and the second and third speaker units (654, 656) face to a front side of the speaker module; a first shield rib disposed between the first speaker unit and the second unit; a second shield rib disposed between the third speaker unit and the fourth unit; a front common space formed by the first and second shield ribs (672, 674) on the front side of the speaker module; a first opening connected to the outside and to the front common space of the second and third speaker units (654, 656); a second opening connected to the outside and to a rear common space of the second and third speaker units (654, 656); a first through hole connecting a front space of the first speaker unit to the front common space; a second through hole connecting a rear space of the first speaker unit to the rear common space; a third through hole connecting a rear space of the fourth speaker unit to the rear common space; a fourth through hole connecting a front space of the fourth speaker unit to the front common space; and wherein an edge of the first speaker unit contacts an edge of the second speaker unit.
A system for calculating insulation resistance, the system comprising: a first resistor unit which connects a positive terminal of a battery and a chassis; a second resistor unit which connects a negative terminal of the battery and the chassis; a third resistor unit which connects the negative terminal of the battery and the chassis and is connected with the second resistor unit in parallel; and a control unit which controls conduction states of the first to third resistor units, wherein the control unit calculates insulation resistance between the positive terminal of the battery and the chassis and insulation resistance between the negative terminal of the battery and the chassis by using the voltage of the battery applied to the second resistor unit according to the conduction states of the first to third resistor units wherein the voltage of the negative terminal side of the battery is used as a reference voltage. a first resistor unit which connects a positive terminal of a battery and a chassis; a second resistor unit which connects a negative terminal of the battery and the chassis; a third resistor unit which connects the negative terminal of the battery and the chassis and is connected with the second resistor unit in parallel; and a control unit which controls conduction states of the first to third resistor units, wherein the control unit calculates insulation resistance between the positive terminal of the battery and the chassis and insulation resistance between the negative terminal of the battery and the chassis by using the voltage of the battery applied to the second resistor unit according to the conduction states of the first to third resistor units wherein the voltage of the negative terminal side of the battery is used as a reference voltage.
A method for forming an elastic material, including: - providing an aqueous solution of tropoelastin monomers; - applying the solution to a surface; - heating the solution on the surface to a temperature of from 60°C to 200°C to enable the tropoelastin monomers to bind to each other to form an elastic material that does not dissociate into tropoelastin monomers when the material is exposed to physiological conditions, thereby forming the elastic material. - providing an aqueous solution of tropoelastin monomers; - applying the solution to a surface; - heating the solution on the surface to a temperature of from 60°C to 200°C to enable the tropoelastin monomers to bind to each other to form an elastic material that does not dissociate into tropoelastin monomers when the material is exposed to physiological conditions,
Method for operating a system having at least one tool, in particular a portable machine tool, and at least two items of equipment, in particular personal protective equipment, of a user, characterized in that at least one of the items of equipment acts as a data master provided for storing and digitally grouping, in particular electronic, data from the at least two items of equipment, wherein the digital grouping is a digital combining of connection data of the at least two items of equipment, wherein the at least two items of equipment are at least sometimes able to be used and/or able to be operated together as a group and/or family.
A packaged catheter assembly comprising a pouch and a catheter, wherein: the catheter is arranged within the pouch; and the catheter comprises at least one handling sleeve formed of a film material and configured to separate into at least two handling sleeve elements (25a, 25b) after withdrawal of the catheter from the pouch.
A flat cable wiring structure, comprising: an operation mechanism that detects a physical operation made on an operating surface and outputs a detection signal; a control board, disposed facing the operating surface of the operation mechanism, that outputs a driving signal for imparting vibration to the operation mechanism on the basis of the detection signal; and a flat cable that electrically connects the operation mechanism and the control board, wherein the flat cable comprises a routing portion that extends from the operation mechanism to the control board partially along a movement direction of the operation mechanism, wherein the routing portion comprises a bending portion that bends at a bending angle allowing the routing portion to be also partially routed along the control board, wherein the routing portion comprises a first routing portion hanging down from a back surface of the operation mechanism toward the control board, and a second routing portion substantially extending along a back surface of the control board, and wherein the bending portion is formed by bending the routing portion where the first routing portion and the second routing portion intersect with each other. an operation mechanism that detects a physical operation made on an operating surface and outputs a detection signal; a control board, disposed facing the operating surface of the operation mechanism, that outputs a driving signal for imparting vibration to the operation mechanism on the basis of the detection signal; and a flat cable that electrically connects the operation mechanism and the control board, wherein the flat cable comprises a routing portion that extends from the operation mechanism to the control board partially along a movement direction of the operation mechanism, wherein the routing portion comprises a bending portion that bends at a bending angle allowing the routing portion to be also partially routed along the control board, wherein the routing portion comprises a first routing portion hanging down from a back surface of the operation mechanism toward the control board, and a second routing portion substantially extending along a back surface of the control board, and wherein the bending portion is formed by bending the routing portion where the first routing portion and the second routing portion intersect with each other.
A gas turbine engine comprising: a fan section (12; 112); a splitter downstream of the fan section (12; 112) at least partially defining a secondary flow path on a radially outer side and an inner flow path on a radially inner side; and a variable pitch rotor assembly located at an inlet to the inner flow path including a plurality of variable pitch rotor blades, characterised in that the fan section (12; 112) includes at least one fan blade row (44; 144B) with a stator (48; 148B) including a row of a plurality of vanes (50, 150B) immediately downstream of the at least one fan blade row (44; 144B) and immediately upstream of the inner flow path and of the variable pitch rotor assembly. a fan section (12; 112); a splitter downstream of the fan section (12; 112) at least partially defining a secondary flow path on a radially outer side and an inner flow path on a radially inner side; and a variable pitch rotor assembly located at an inlet to the inner flow path including a plurality of variable pitch rotor blades, characterised in that the fan section (12; 112) includes at least one fan blade row (44; 144B) with a stator (48; 148B) including a row of a plurality of vanes (50, 150B) immediately downstream of the at least one fan blade row (44; 144B) and immediately upstream of the inner flow path and of the variable pitch rotor assembly.
A motor vehicle actuating device, having a support housing mountable to a motor vehicle, a functional element which is mounted on the support housing rotatably about a rotational axis and is movable between a resting position and an operating position, a drive device arranged at the support housing, and an actuator operatively connected with the drive device, which is designed to move the functional element from the resting position into the operating position during the operation of the drive device, characterized in that the drive device during its operation moves the actuator from a normal position via an actuating start position into an actuating end position, wherein the actuator, during its movement from the normal position into the actuating start position, pushes the functional element from the resting position into the operating position, and wherein the actuator, during its movement from the actuating start position into the actuating end position, holds the functional element in its operating position.