mhurhangee/ep-ind-claims huggingface dataset:
A robot system for a teleoperative process, comprising: - an image recording device, and - a tool, wherein the tool is guided by a first manipulator, in the form of a multi-axis articulated robot arm, wherein the axes of the manipulator are provided with sensors for detecting the forces and/or torques acting on the axes; and wherein the robot system further comprises: - a control unit that is configured to: (a) determine the currently captured region of the image recording device, and (b) determine the pose of the tool relative to the image recording device, and (c) perform an action, when the tool violates the limits of the currently captured region of the image recording device. - an image recording device, and - a tool, wherein the tool is guided by a first manipulator, in the form of a multi-axis articulated robot arm, wherein the axes of the manipulator are provided with sensors for detecting the forces and/or torques acting on the axes; - a control unit that is configured to: (a) determine the currently captured region of the image recording device, and (b) determine the pose of the tool relative to the image recording device, and (c) perform an action, when the tool violates the limits of the currently captured region of the image recording device. (a) determine the currently captured region of the image recording device, and (b) determine the pose of the tool relative to the image recording device, and (c) perform an action, when the tool violates the limits of the currently captured region of the image recording device.
A computer implemented method, comprising: receiving a signal associated with an analyte level of a user; determining whether the received signal shows a transition from above a first predetermined level to below another second predetermined level; determining an operational state associated with an analyte monitoring device as a no detected sensor state if the transition is detected; and generating an output data associated with the operational state of the analyte monitoring device based on the determined operational state. receiving a signal associated with an analyte level of a user; determining whether the received signal shows a transition from above a first predetermined level to below another second predetermined level; determining an operational state associated with an analyte monitoring device as a no detected sensor state if the transition is detected; and generating an output data associated with the operational state of the analyte monitoring device based on the determined operational state.
A spark plug comprising: a center electrode that extends in an axial direction; an insulation body that exposes a leading end of the center electrode and is formed at an outer periphery of the center electrode; a metal shell that is formed at an outer periphery of the insulation body, and a ground electrode that is connected to the metal shell, wherein the ground electrode has: a ground electrode base material that is arranged so that a leading end portion thereof is opposite to an end surface of the center electrode; and a projecting shape section that is provided at the leading end portion of the ground electrode base material and is formed in a projected shape at a portion close to the center electrode, wherein the ground electrode base material and the projecting shape section are formed by a material of the same metal as a main component and are connected by resistance welding, wherein a boundary portion to the ground electrode base material and an outer periphery of the projecting shape section are strongly connected by a laser welding section, characterized in that, the ground electrode base material and the projecting shape section are formed to satisfy a relation R>S when a specific resistance of the ground electrode base material is R (μΩcm) and a specific resistance of the projecting shape section is S (μΩcm).
Impregnating resin composition containing a) a melamine-formaldehyde resin, b) a nonionic wetting agent, c) a nonionic release agent, d) a curing agent, and e) polyhexamethylene guanidine (PHMG). a) a melamine-formaldehyde resin, b) a nonionic wetting agent, c) a nonionic release agent, d) a curing agent, and e) polyhexamethylene guanidine (PHMG).
A luminous advertisement sheet, comprising a light-transmitting print sheet having an electroluminescence advertisement region, formed in some area thereof, and a general advertisement region, formed in the other area thereof, the electroluminescence advertisement region having at least one of a fixed pattern portion, in which a transparent electrode layer, an electroluminescence layer and a dielectric layer are sequentially laminated and a variable pattern portion, in which a transparent electrode layer, an electroluminescence layer, a dielectric layer and a plurality of pixel electrode layers are sequentially laminated, the general advertisement region being a region in which a general printed pattern (13 a) is printed using a general dye ink, and a pattern electrode layer laminated and printed with a conductive ink material to have a predetermined luminous pattern in some area of the dielectric layer laminated in the fixed pattern portion, and a reinforcement layer made of a resin material and formed between the light-transmitting print sheet and the transparent electrode layer.
Stable composition comprising at least x% by weight of 2,3,3,3-tetrafluoropropene (99.85 ≤ x < 99.98%), from 0.02 to 0.15% by weight of unsaturated compound(s) (Ia) chosen from the positional isomers of 2,3,3,3-tetrafluoropropene, such as 1,3,3,3-tetrafluoropropene (Z and E isomers), and optionally at most 200 ppm of 3,3,3-trifluoropropyne and/or at most 5 ppm of 1,1,1,2,3-pentafluoropropene (HFO-1225ye) and/or at most 400 ppm of compounds (Ib).
Device (110, 110', 110") for repairing or locally reinforcing an elongate body which has a modified integrity, the device comprising: - means (112, 113, 400, 410) of removable fixation around the elongate body, - a support structure (125, 430) and means of rotary movement of the support structure (125, 430) around the fixation means (112, 113, 400, 410), - a spool (135, 440) and means of longitudinal movement of the spool (135, 440) relative to the support structure (125, 430), the support structure (125, 430) including means of limiting the movement of the spool to a predetermined course, the spool (135, 440) being able to be unwound when subjected to a specified tension, and - means of causing rotary and translative movement of the spool (135, 440) around the elongate body, characterized in that the spool (135, 140) is a spool of pre-impregnated polymerisable strip and in that the means of causing rotary and translative movement are able to cause the winding of the pre-impregnated strip around said elongate body, the device thus being able to wind one or more layers of a pre-impregnated polymerisable band around the elongate body, - means (112, 113, 400, 410) of removable fixation around the elongate body, - a support structure (125, 430) and means of rotary movement of the support structure (125, 430) around the fixation means (112, 113, 400, 410), - a spool (135, 440) and means of longitudinal movement of the spool (135, 440) relative to the support structure (125, 430), the support structure (125, 430) including means of limiting the movement of the spool to a predetermined course, the spool (135, 440) being able to be unwound when subjected to a specified tension, and - means of causing rotary and translative movement of the spool (135, 440) around the elongate body,
A fluid sample collection card comprising: an upper layer including a sample window and a viewing window extending therethrough, the viewing window spaced apart from the sample window, a support layer; a bridge member which is located between the sample window and the viewing window; an absorbent layer, having a width and a length, positioned beneath the upper layer and extending beneath the sample window and the viewing window; a non-absorbent layer positioned beneath the absorbent layer, the non-absorbent layer having a width and a length greater than the width and the length of the absorbent layer; a first reference line adjacent to the viewing window, the first reference line associated with the volume of fluid, wherein the volume of fluid, when absorbed by the absorbent layer, separates into at least one component along the length of the absorbent layer to an extent sufficient to perform a test on the at least one component; and an adhesive layer on the support layer, wherein the non-absorbent layer is adhered to the support layer by the adhesive layer, the upper layer contacting the adhesive layer completely around the periphery of the non-absorbent layer, the adhesive layer not contacting the absorbent layer; and wherein the upper layer is pressed against the absorbent layer and the non-absorbent layer so as to cause deformation of the upper layer such that the absorbent layer is entrapped by the bridge and by a lip about the sample window and a lip about the viewing window. an upper layer including a sample window and a viewing window extending therethrough, the viewing window spaced apart from the sample window, a support layer; a bridge member which is located between the sample window and the viewing window; an absorbent layer, having a width and a length, positioned beneath the upper layer and extending beneath the sample window and the viewing window; a non-absorbent layer positioned beneath the absorbent layer, the non-absorbent layer having a width and a length greater than the width and the length of the absorbent layer; a first reference line adjacent to the viewing window, the first reference line associated with the volume of fluid, wherein the volume of fluid, when absorbed by the absorbent layer, separates into at least one component along the length of the absorbent layer to an extent sufficient to perform a test on the at least one component; and an adhesive layer on the support layer, wherein the non-absorbent layer is adhered to the support layer by the adhesive layer, the upper layer contacting the adhesive layer completely around the periphery of the non-absorbent layer, the adhesive layer not contacting the absorbent layer; and wherein the upper layer is pressed against the absorbent layer and the non-absorbent layer so as to cause deformation of the upper layer such that the absorbent layer is entrapped by the bridge and by a lip about the sample window and a lip about the viewing window.
A method for producing a resistance spot weld joint for joining two or more steel sheets including at least one steel sheet having a tensile strength of 980 MPa or higher, the method involving placing the steel sheets on top of each other to form steel sheets to be welded, clamping the steel sheets with a pair of electrodes, and passing a current through the steel sheets while applying pressure thereto to join the steel sheets together, the method for producing the resistance spot weld joint comprising: an initial welding step of welding by passing a current I 1 (kA) satisfying relation while applying a welding force F 1 (kN) satisfying relation, 0.2 × √ t 1 < F 1 ≤ 4 × √ t 1 2 × √ F 1 < I 1 ≤ 10 × √ F 1 where ti is a total sheet thickness (mm) of the steel sheets to be welded; wherein a welding time in the initial welding step is 20 ms or more and within 100ms, and a main welding step of forming a nugget having a predetermined nugget diameter, wherein spatter for discharging a hydrogen source present at the interface of the steel sheets is produced within 100 ms of the start of welding in the initial welding step, wherein a welding voltage Vs at the time of occurrence of the spatter satisfies relation, Vs ≥ 0.8 × Va where Va is the welding voltage 5 ms before the occurrence of spatter, and Vs is the welding voltage at the time of occurrence of spatter. an initial welding step of welding by passing a current I 1 (kA) satisfying relation while applying a welding force F 1 (kN) satisfying relation, 0.2 × √ t 1 < F 1 ≤ 4 × √ t 1 2 × √ F 1 < I 1 ≤ 10 × √ F 1 where ti is a total sheet thickness (mm) of the steel sheets to be welded; wherein a welding time in the initial welding step is 20 ms or more and within 100ms, and a main welding step of forming a nugget having a predetermined nugget diameter, wherein spatter for discharging a hydrogen source present at the interface of the steel sheets is produced within 100 ms of the start of welding in the initial welding step, wherein a welding voltage Vs at the time of occurrence of the spatter satisfies relation, Vs ≥ 0.8 × Va where Va is the welding voltage 5 ms before the occurrence of spatter, and Vs is the welding voltage at the time of occurrence of spatter.
A building envelope component, such as a wall or roof element, comprising a load-bearing structure for a building comprising a first set of beams arranged substantially horizontally and a second set of beams arranged at right angles in relation to the first set of beams, said first and second sets of beams forming a frame, which confines a number of rectangular sections that may each be occupied by a panel, such as an infill, a window, a door or a solar energy collector, where the beams of at least one set is provided with one or more feathers, which, in the mounted state, projects at substantially right angles to the frame plane, runs along substantially the entire length of the beam in parallel with the length axis thereof along the side of the beam so that no part of the feather projects above the upper level of the frame, and defines a groove running in parallel with the length axis of beam, the groove being located between the main portion of the beam and the feather, and a window occupying a section of the frame, characterized in that said window comprising a stationary frame (4-1, 4-2, 4-3, 4-4) with grooves running along the length axis of the at least two parallel frame members and/or a number of mounting brackets, and that the window is mounted on the load-bearing structure by the grooves and/or mounting brackets of the window frame fitting over the feathers of the beams of the load-bearing structure.
Apparatus (10; 10'; 10") for welding components by means of ultrasound, comprising - a sonotrode (11; 11'; 11") with a sonotrode head (12; 12'; 12") which can be excited by an oscillation generator to perform torsional oscillations with regard to a torsion axis, at least one welding face (14; 14'; 14") being arranged on the sonotrode head (12; 12'; 12") on the circumferential side with regard to the torsion axis, - a supporting device (15; 15'; 15") which supports the sonotrode head (11; 11'; 11") in a supporting region (16; 16'; 16") which contains an oscillation node of the sonotrode head (12; 12'; 12"), characterized in that - the sonotrode (11; 11'; 11"; 11''') has a bore (17; 17'; 17"; 17''') which penetrates the supporting region (16; 16'; 16"; 16''') substantially perpendicularly with respect to the torsion axis, - the supporting device (15; 15'; 15"; 15''') comprises a supporting bolt (18; 18'; 18"; 18''') which runs through the bore (17; 17'; 17"; 17''') and supports the sonotrode (11; 11'; 11"; 11''') in the bore (17; 17'; 17"; 17''') in the supporting region (16; 16'; 16"; 16'''), - the supporting region (16; 16'; 16") and the welding face (14; 14'; 14") run at least partially in a common plane which extends perpendicularly with respect to the torsion axis, and - the supporting region (16; 16'; 16") forms only an inner (with regard to the torsion axis) region of the sonotrode head (12; 12'; 12"). - a sonotrode (11; 11'; 11") with a sonotrode head (12; 12'; 12") which can be excited by an oscillation generator to perform torsional oscillations with regard to a torsion axis, at least one welding face (14; 14'; 14") being arranged on the sonotrode head (12; 12'; 12") on the circumferential side with regard to the torsion axis, - a supporting device (15; 15'; 15") which supports the sonotrode head (11; 11'; 11") in a supporting region (16; 16'; 16") which contains an oscillation node of the sonotrode head (12; 12'; 12"), - the sonotrode (11; 11'; 11"; 11''') has a bore (17; 17'; 17"; 17''') which penetrates the supporting region (16; 16'; 16"; 16''') substantially perpendicularly with respect to the torsion axis, - the supporting device (15; 15'; 15"; 15''') comprises a supporting bolt (18; 18'; 18"; 18''') which runs through the bore (17; 17'; 17"; 17''') and supports the sonotrode (11; 11'; 11"; 11''') in the bore (17; 17'; 17"; 17''') in the supporting region (16; 16'; 16"; 16'''), - the supporting region (16; 16'; 16") and the welding face (14; 14'; 14") run at least partially in a common plane which extends perpendicularly with respect to the torsion axis, and - the supporting region (16; 16'; 16") forms only an inner (with regard to the torsion axis) region of the sonotrode head (12; 12'; 12").
A compound having the following structure: wherein X is a carbon atom or nitrogen atom, R 1 is selected from the group consisting of a substituted or unsubstituted five to eight membered heterocyclic ring, six membered aryl ring, five or six membered heteroaryl ring, C 3 to C 8 cycloalkyl group, C 1 to C 6 alkyl group, and R 2 is selected from the group consisting of a hydrogen atom, a substituted or unsubstituted five or six membered heteroaryl ring, a five or six membered aryl ring, C 3 to C 6 cycloalkyl group, eight to ten membered heterocyclic ring system, and R 3 is selected from the group consisting of a substituted or unsubstituted C 2 to C 8 alkylheteroaryl group, C 2 to C 8 alkyleneheteroaryl group, C 6 to C 10 aryl group, C 2 to C 5 heteroaryl group, C 7 to C 13 alkylaryl group, C 7 to C 13 alkylenearyl group, C 2 to C 8 alkylhetrocyclyl group, C 2 to C 8 alkylenehetrocyclyl group, C 4 to C 8 alkylcycloalkyl group, or C 4 to C 8 alkylenecycloalkyl group; and R a is a substituted or unsubstituted C 1 to C 6 alkyl group or C 5 to C 6 aryl group.
A method, in a first node, for obtaining an available radio measurement associated with a wireless device, the first node being comprised in a communications network, the method characterized by: sending, to a second node, a positioning request for a radio measurement which has already taken place, and which has been stored in the second node, wherein the radio measurement is requested for use in positioning of the associated wireless device; and receiving, from the second node, a communication comprising at least one of the available radio measurement or an indication that the requested radio measurement is not available, wherein if the communication comprises the available radio measurement, the method further comprising utilizing the available radio measurement for positioning or location-based services. sending, to a second node, a positioning request for a radio measurement which has already taken place, and which has been stored in the second node, wherein the radio measurement is requested for use in positioning of the associated wireless device; and receiving, from the second node, a communication comprising at least one of the available radio measurement or an indication that the requested radio measurement is not available, wherein if the communication comprises the available radio measurement, the method further comprising utilizing the available radio measurement for positioning or location-based services.
A fiber optic connector, comprising an outer housing, a shroud disposed at the front end of the fiber optic connector, a fiber optic connector shutter rotatably mounted to the shroud about a first axis, the fiber optic connector shutter having an outer surface and an inner surface, the outer surface having an outer surface plane and the inner surface having an inner surface plane; and a notch in the fiber optic connector shutter, the notch having an outer portion extending forward from the outer surface beyond the outer surface plane and a corresponding inner indentation extending into the fiber optic connector shutter forward of the inner surface plane, and a fiber optic ferrule holding optical fibers, wherein the fiber optic connector further comprises an inner housing that contains the fiber optic ferrule, and the shroud is disposed between the outer housing and the inner housing. a fiber optic connector shutter rotatably mounted to the shroud about a first axis, the fiber optic connector shutter having an outer surface and an inner surface, the outer surface having an outer surface plane and the inner surface having an inner surface plane; and a notch in the fiber optic connector shutter, the notch having an outer portion extending forward from the outer surface beyond the outer surface plane and a corresponding inner indentation extending into the fiber optic connector shutter forward of the inner surface plane, and a fiber optic ferrule holding optical fibers, wherein the fiber optic connector further comprises an inner housing that contains the fiber optic ferrule, and the shroud is disposed between the outer housing and the inner housing. an inner housing that contains the fiber optic ferrule, and the shroud is disposed between the outer housing and the inner housing.
A method for estimating a transfer function at a central office to be used for performing loop qualification of a telephone digital subscriber line between a central office, CO, and a customer premises, CP, regardless of the topology of the loop to be qualified, the method comprises the steps of: - retrieving at the CO a value Z in 1 0 of the impedance at the CO side when the end of the line at the CP is short circuited, - retrieving at the CO a value Z in 1 ∞ of the impedance at the CO when the end of the line at the CP is open and wherein the method is characterized by the step of: - estimating the transfer function based on the transmission matrix T expressed by the following equation: T = Z in 1 ∞ f s 2 Z in 1 ∞ − Z in 1 0 Z in 1 ∞ Z in 1 0 2 Z in 1 ∞ − Z in 1 0 f s 2 f s 2 Z in 1 ∞ Z in 1 ∞ − Z in 1 0 Z in 1 ∞ Z in 1 ∞ − Z in 1 0 f s 2 wherein f s is set to 1 under the assumption that the loop to be qualified is symmetric independently of the symmetric characteristics of the loop to be qualified. - retrieving at the CO a value Z in 1 0 of the impedance at the CO side when the end of the line at the CP is short circuited, - retrieving at the CO a value Z in 1 ∞ of the impedance at the CO when the end of the line at the CP is open and wherein the method is characterized by the step of: - estimating the transfer function based on the transmission matrix T expressed by the following equation: T = Z in 1 ∞ f s 2 Z in 1 ∞ − Z in 1 0 Z in 1 ∞ Z in 1 0 2 Z in 1 ∞ − Z in 1 0 f s 2 f s 2 Z in 1 ∞ Z in 1 ∞ − Z in 1 0 Z in 1 ∞ Z in 1 ∞ − Z in 1 0 f s 2 wherein f s is set to 1 under the assumption that the loop to be qualified is symmetric independently of the symmetric characteristics of the loop to be qualified.