mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: forming a laminate stack (200, 900, 1000, 1100) including a gas permeable nonwoven layer and a pressure sensitive adhesive layer (212, 904, 1004, 1104), a surface of the pressure sensitive adhesive layer facing a surface of the gas permeable nonwoven layer; and processing the laminate stack such that a plurality of venting pathways are formed in the pressure sensitive adhesive layer (212, 904, 1004, 1104) to enable trapped gas to pass through the pressure sensitive adhesive layer; wherein processing the laminate stack such that a plurality of venting pathways are formed in the pressure sensitive adhesive layer includes applying pressure and heat to the laminate stack to reduce a ductility of the pressure sensitive adhesive layer such that the venting pathways are formed when the pressure sensitive adhesive layer (212, 904, 1004, 1104) is strained; and/or mixing an additive into a pressure sensitive adhesive resin that is used to form the pressure sensitive adhesive layer (212, 904, 1004, 1104) of the laminate stack (200, 900, 1000, 1100), wherein the venting pathways extend randomly through a thickness and across at least a portion of a width and a length of the pressure sensitive adhesive layer (212, 904, 1004, 1104). forming a laminate stack (200, 900, 1000, 1100) including a gas permeable nonwoven layer and a pressure sensitive adhesive layer (212, 904, 1004, 1104), a surface of the pressure sensitive adhesive layer facing a surface of the gas permeable nonwoven layer; and processing the laminate stack such that a plurality of venting pathways are formed in the pressure sensitive adhesive layer (212, 904, 1004, 1104) to enable trapped gas to pass through the pressure sensitive adhesive layer; wherein processing the laminate stack such that a plurality of venting pathways are formed in the pressure sensitive adhesive layer includes applying pressure and heat to the laminate stack to reduce a ductility of the pressure sensitive adhesive layer such that the venting pathways are formed when the pressure sensitive adhesive layer (212, 904, 1004, 1104) is strained; and/or mixing an additive into a pressure sensitive adhesive resin that is used to form the pressure sensitive adhesive layer (212, 904, 1004, 1104) of the laminate stack (200, 900, 1000, 1100), wherein the venting pathways extend randomly through a thickness and across at least a portion of a width and a length of the pressure sensitive adhesive layer (212, 904, 1004, 1104).
A method of controlling an electrical machine comprising a rotor and a stator separated by an airgap, which method comprises the steps of - obtaining a measurement (w AG) of airgap width during operation of the machine; - determining a corrective value; characterised in that said corrective value is a negative Id current on the basis of the airgap width measurement (w AG) when the airgap width measurement (w AG) reaches a predetermined minimum airgap width (w MIN), which predetermined minimum airgap width (w MIN) is determined on the basis of a nominal airgap width (w NOM) and/or a manufacturing tolerance and/or stator temperature and/or rotor temperature and/or a measure of rotor eccentricity; and - injecting the negative Id current into windings of the electrical machine to correct the airgap width. - obtaining a measurement (w AG) of airgap width during operation of the machine; - determining a corrective value; characterised in that said corrective value is a negative Id current on the basis of the airgap width measurement (w AG) when the airgap width measurement (w AG) reaches a predetermined minimum airgap width (w MIN), which predetermined minimum airgap width (w MIN) is determined on the basis of a nominal airgap width (w NOM) and/or a manufacturing tolerance and/or stator temperature and/or rotor temperature and/or a measure of rotor eccentricity; and - injecting the negative Id current into windings of the electrical machine to correct the airgap width.
A method performed by a source master base station in a wireless communication system, the method comprising: transmitting, to a target master base station, a handover request message including information associated with a secondary base station involved in a dual connectivity related to a user equipment, UE; receiving, from the target master base station, a handover response message including information on a radio resource control, RRC, container and information indicating that a bearer established at the secondary base station is kept; and transmitting, to the secondary base station, a release request message for requesting release of resources related to the UE, the release request message including the information indicating that a bearer established at the secondary base station is kept. transmitting, to a target master base station, a handover request message including information associated with a secondary base station involved in a dual connectivity related to a user equipment, UE; receiving, from the target master base station, a handover response message including information on a radio resource control, RRC, container and information indicating that a bearer established at the secondary base station is kept; and transmitting, to the secondary base station, a release request message for requesting release of resources related to the UE, the release request message including the information indicating that a bearer established at the secondary base station is kept.
A method for preparing an electrode for a lithium secondary battery comprising: forming a primer layer including a conductor on a current collector; forming a patterned primer layer by forming a concave pattern through irradiating an ion beam over the whole primer layer surface; and forming an electrode layer including an electrode active material on the patterned primer layer. forming a primer layer including a conductor on a current collector; forming a patterned primer layer by forming a concave pattern through irradiating an ion beam over the whole primer layer surface; and forming an electrode layer including an electrode active material on the patterned primer layer.
A battery cell, comprising: a body; at least one rail installed on the body; at least one rail groove formed on the other surface of the body on which the rail is not installed; and at least one cooling hole in the rail, wherein the cooling hole is opened to the outside on a path of a fluid, characterized in that the rail has a cross section that is gradually extended toward an outside direction of the body, and the rail groove has a cross section that is gradually extended toward an inside direction of the body. a body; at least one rail installed on the body; at least one rail groove formed on the other surface of the body on which the rail is not installed; and at least one cooling hole in the rail, wherein the cooling hole is opened to the outside on a path of a fluid, characterized in that the rail has a cross section that is gradually extended toward an outside direction of the body, and the rail groove has a cross section that is gradually extended toward an inside direction of the body.
A system for providing control to a user perceiving a virtual reality with a gaze that fixates to the distance of an object, the system comprising: a non-transitory storage device storing an association between the object and a response; an eye tracking module configured to determine lines of sight for both of the user's eyes; and a processor configured to receive the lines of sight and determine both the user's gaze therefrom and to measure the viewer's eye vergence, wherein the vergence is the simultaneous movement of the user's pupils toward or away from one another during change of binocular fixating, to detect the binocular fixation upon the object, then to detect the vergence with the eye tracking module including to monitor the z-depth of the binocular fixation of the eyes and to determine that a first derivative of the z-depth has changed by more than a threshold amount, and to provide the response in dependency of the detected eye vergence. a non-transitory storage device storing an association between the object and a response; an eye tracking module configured to determine lines of sight for both of the user's eyes; and a processor configured to receive the lines of sight and determine both the user's gaze therefrom and to measure the viewer's eye vergence, wherein the vergence is the simultaneous movement of the user's pupils toward or away from one another during change of binocular fixating, to detect the binocular fixation upon the object, then to detect the vergence with the eye tracking module including to monitor the z-depth of the binocular fixation of the eyes and to determine that a first derivative of the z-depth has changed by more than a threshold amount, and to provide the response in dependency of the detected eye vergence. to receive the lines of sight and determine both the user's gaze therefrom and to measure the viewer's eye vergence, wherein the vergence is the simultaneous movement of the user's pupils toward or away from one another during change of binocular fixating, to detect the binocular fixation upon the object, then to detect the vergence with the eye tracking module including to monitor the z-depth of the binocular fixation of the eyes and to determine that a first derivative of the z-depth has changed by more than a threshold amount, and to provide the response in dependency of the detected eye vergence.
A MEMS accelerometer comprising a supporting structure (2; 102) and at least one first deformable group (21*, 51; 121*, 151) and one second deformable group (22*, 52; 122*, 152), which include, respectively, a first deformable cantilever element (21*; 121*) and a second deformable cantilever element (22*; 122*), which are arranged in a direction parallel to a plane and each have a respective first end, which is fixed to the supporting structure (2; 102), and a respective second end; said first deformable group (21*, 51; 121*, 151) further comprising: - a first piezoelectric detection structure (51; 151), which is mechanically coupled to the first deformable cantilever element (21*; 121*); said second deformable group (22*, 52; 122*, 152) further comprising: - a second piezoelectric detection structure (52; 152), which is mechanically coupled to the second deformable cantilever element (22*; 122*); said MEMS accelerometer (1; 101) further comprising: - a first mobile mass (31, 131) and a second mobile mass (32, 132), which are fixed, respectively, to the second end of the first deformable cantilever element (21*, 121*) and to the second end of the second deformable cantilever element (22*, 122*) and are staggered with respect to the first and second deformable cantilever elements (21*, 121*; 22*, 122*), respectively, in a vertical direction transverse with respect to said plane; and - a first elastic structure (M1, M1') configured to elastically couple the first and second mobile masses (31; 131; 32, 132); and wherein the first and second deformable cantilever elements (21*, 22*; 121*, 122*) extend in a first direction of detection (H1, H2; H1', H2') and are opposite to one another, so that, in the presence of accelerations directed in a direction parallel to said first direction of detection (H1, H2; H1', H2'), the first and second deformable cantilever elements (21*, 22*; 121*, 122*) are subjected to first parallel and concordant bending moments; and wherein the first elastic structure (M1, M1') is compliant in a direction parallel to the first direction of detection (H1, H2; H1', H2') and is rigid parallel to the vertical direction. - a first piezoelectric detection structure (51; 151), which is mechanically coupled to the first deformable cantilever element (21*; 121*); - a second piezoelectric detection structure (52; 152), which is mechanically coupled to the second deformable cantilever element (22*; 122*); - a first mobile mass (31, 131) and a second mobile mass (32, 132), which are fixed, respectively, to the second end of the first deformable cantilever element (21*, 121*) and to the second end of the second deformable cantilever element (22*, 122*) and are staggered with respect to the first and second deformable cantilever elements (21*, 121*; 22*, 122*), respectively, in a vertical direction transverse with respect to said plane; and - a first elastic structure (M1, M1') configured to elastically couple the first and second mobile masses (31; 131; 32, 132);
A method of operating a first communications device to interact with a second communications device the method comprising: determining a set of control information reports to be transmitted, said set of control information reports corresponding to a reporting format; generating the determined set of control information reports; communicating said generated set of control information reports; performing a coding and modulation operation on the multiplexed generated set of reports to generate a set of coded symbols; and mapping the coded symbols to segments of a wireless communications channel; wherein determining a set of control information reports includes selecting between a plurality of predetermined reporting formats; wherein each of said plurality of predetermined reporting formats specifies a plurality of different types of reports and an ordering of said different types of reports; wherein said communicating includes multiplexing the generated reports of different types in accordance with said determined reporting format; wherein said step of coding and modulation includes using a predetermined coding and modulation scheme corresponding to the determined reporting format, different coding and modulation schemes being used for at least some of said plurality of reporting formats. determining a set of control information reports to be transmitted, said set of control information reports corresponding to a reporting format; generating the determined set of control information reports; communicating said generated set of control information reports; performing a coding and modulation operation on the multiplexed generated set of reports to generate a set of coded symbols; and mapping the coded symbols to segments of a wireless communications channel; wherein determining a set of control information reports includes selecting between a plurality of predetermined reporting formats; wherein each of said plurality of predetermined reporting formats specifies a plurality of different types of reports and an ordering of said different types of reports; wherein said communicating includes multiplexing the generated reports of different types in accordance with said determined reporting format; wherein said step of coding and modulation includes using a predetermined coding and modulation scheme corresponding to the determined reporting format, different coding and modulation schemes being used for at least some of said plurality of reporting formats.
A method of reconditioning a vacuum interrupter comprising: determining whether the vacuum interrupter is suitable for reconditioning; where the vacuum interrupter is suitable for reconditioning: forming at least one hole in an endcap of a vacuum envelope of the vacuum interrupter; cleaning components of the vacuum interrupter inside the vacuum envelope, wherein the components of the vacuum interrupter inside the vacuum envelope are cleaned by introducing a cleaning solution into the interior of the vacuum envelope through the at least one hole in the end cap; removing the cleaning solution from the interior of the vacuum envelope; installing a plug in the at least one hole, wherein the plug has getter material on a surface thereof facing the interior of the vacuum envelope; and vacuum sealing the plug to the at least one hole such that a vacuum is re-established in the interior of the vacuum envelope. determining whether the vacuum interrupter is suitable for reconditioning; where the vacuum interrupter is suitable for reconditioning: forming at least one hole in an endcap of a vacuum envelope of the vacuum interrupter; cleaning components of the vacuum interrupter inside the vacuum envelope, wherein the components of the vacuum interrupter inside the vacuum envelope are cleaned by introducing a cleaning solution into the interior of the vacuum envelope through the at least one hole in the end cap; removing the cleaning solution from the interior of the vacuum envelope; installing a plug in the at least one hole, wherein the plug has getter material on a surface thereof facing the interior of the vacuum envelope; and vacuum sealing the plug to the at least one hole such that a vacuum is re-established in the interior of the vacuum envelope. forming at least one hole in an endcap of a vacuum envelope of the vacuum interrupter; cleaning components of the vacuum interrupter inside the vacuum envelope, wherein the components of the vacuum interrupter inside the vacuum envelope are cleaned by introducing a cleaning solution into the interior of the vacuum envelope through the at least one hole in the end cap; removing the cleaning solution from the interior of the vacuum envelope; installing a plug in the at least one hole, wherein the plug has getter material on a surface thereof facing the interior of the vacuum envelope; and vacuum sealing the plug to the at least one hole such that a vacuum is re-established in the interior of the vacuum envelope.
A pad for a track-type tensioner, the pad comprising: a rigid base plate; an interface layer comprising a plurality of rigid elements that together define a contact face of the pad for gripping an elongate product supported by the tensioner in use, wherein the contact face of the pad is substantially planar in a rest state; and a substrate layer of pliant material sandwiched between the base plate and the interface layer, the substrate layer supporting the elements of the interface layer for movement relative to each other and relative to the base plate; characterised in that the pad further comprises elongate gaps between adjacent elements of the interface layer, which gaps extend through the full thickness of the interface layer. a rigid base plate; an interface layer comprising a plurality of rigid elements that together define a contact face of the pad for gripping an elongate product supported by the tensioner in use, wherein the contact face of the pad is substantially planar in a rest state; and a substrate layer of pliant material sandwiched between the base plate and the interface layer, the substrate layer supporting the elements of the interface layer for movement relative to each other and relative to the base plate; characterised in that the pad further comprises elongate gaps between adjacent elements of the interface layer, which gaps extend through the full thickness of the interface layer.
Method for measuring the sound pressure level of a cylindrical high-voltage choke operated at high voltage, which is mounted by means of insulators on a base or a mounting plane, having a measuring device which is movable relative to the object to be measured and which has a mobile self-navigating measuring robot and a carrier secured thereon and at least one measuring microphone arranged thereon and is moved along a measurement path at a predefinable distance from the object to be measured, comprising the following method steps: - moving the measuring robot along the measurement path, - acquiring measured values of the sound pressure level by means of the at least one measuring microphone, - transmitting measured values of the sound pressure level on a transmission channel which connects the positioning and control unit to a control and evaluation unit, wherein the measuring robot stops respectively at predefinable measuring positions along the measurement path for the respective acquisition of the sound pressure level; or wherein the measuring robot is moved along the measurement path at a continuous speed and in the process acquires the sound pressure level continuously at predefinable measuring positions, and wherein the measurement path is a concentric circle around the cylinder axis. comprising the following method steps: - moving the measuring robot along the measurement path, - acquiring measured values of the sound pressure level by means of the at least one measuring microphone, - transmitting measured values of the sound pressure level on a transmission channel which connects the positioning and control unit to a control and evaluation unit, - moving the measuring robot along the measurement path, - acquiring measured values of the sound pressure level by means of the at least one measuring microphone, - transmitting measured values of the sound pressure level on a transmission channel which connects the positioning and control unit to a control and evaluation unit, wherein the measuring robot stops respectively at predefinable measuring positions along the measurement path for the respective acquisition of the sound pressure level; or wherein the measuring robot is moved along the measurement path at a continuous speed and in the process acquires the sound pressure level continuously at predefinable measuring positions, and wherein the measurement path is a concentric circle around the cylinder axis.
A safety pen needle assembly comprising: a hub having a tubular body with a proximal end, a distal end, a channel defined interiorly of said body and extending between said proximal and distal ends, and a wall disposed within said body to extend transversely at least partially across said channel; a needle extending through said channel having a distal end, formed for insertion into a patient, and a proximal end, wherein said needle is fixed to said hub with said distal end being located distally of said wall and said proximal end being located proximally of said wall; a shield disposed proximally of said wall and at least partially within said hub; a biasing means disposed to urge said shield proximally from a first position to a second position; and, at least one pivoting locking finger on said body of said hub, characterized in that said pivoting locking finger being deflectable from a first state to a second state, wherein, in said first state, said pivoting locking finger interengages with said shield so as to restrict proximal movement thereof, said pivoting locking finger in said first state retaining said shield in said first position with said proximal end of said needle being exposed, and, wherein in said second state, said pivoting locking finger is deflected outward to disengage from said shield so as to permit said shield to be urged proximally to said second position by said biasing means, said shield covering said proximal end of said needle in said second position, and at least one of said pivoting locking finger and said shield having a groove (116, 120) for such interengagement and disengagement. a hub having a tubular body with a proximal end, a distal end, a channel defined interiorly of said body and extending between said proximal and distal ends, and a wall disposed within said body to extend transversely at least partially across said channel; a needle extending through said channel having a distal end, formed for insertion into a patient, and a proximal end, wherein said needle is fixed to said hub with said distal end being located distally of said wall and said proximal end being located proximally of said wall; a shield disposed proximally of said wall and at least partially within said hub; a biasing means disposed to urge said shield proximally from a first position to a second position; and, at least one pivoting locking finger on said body of said hub, characterized in that