mhurhangee/ep-ind-claims huggingface dataset:
An assembly (200; 300) comprising: a tubular support core (202; 302); a splice body (206; 210, 212, 214; 310, 312, 314) having two ends and disposed upon the support core; a conductive shield sock (204; 204', 204"; 304', 304"), comprising at least two overlapping layers, and configured to circumferentially surround the splice body (206; 210, 212, 214; 310, 312, 314); and, a cold shrink jacket (208; 308) configured to circumferentially surround the shield sock (204; 204', 204"; 304', 304"), wherein the conductive shield sock (204; 204', 204"; 304', 304") extends beyond both ends of the splice body (206; 210, 212, 214; 310, 312, 314), wherein the conductive shield sock (204; 204', 204"; 304', 304") comprises one or more sections, each section having two ends, and wherein all of the section ends are located between the cold shrink jacket (208; 308) and the splice body (206; 210, 212, 214; 310, 312, 314); and wherein at least one section of the shield sock (204; 204', 204"; 304', 304") comprises a folded portion that extends beyond one end of the splice body(206; 210, 212, 214; 310, 312, 314). a tubular support core (202; 302); a splice body (206; 210, 212, 214; 310, 312, 314) having two ends and disposed upon the support core; a conductive shield sock (204; 204', 204"; 304', 304"), comprising at least two overlapping layers, and configured to circumferentially surround the splice body (206; 210, 212, 214; 310, 312, 314); and, a cold shrink jacket (208; 308) configured to circumferentially surround the shield sock (204; 204', 204"; 304', 304"), wherein the conductive shield sock (204; 204', 204"; 304', 304") extends beyond both ends of the splice body (206; 210, 212, 214; 310, 312, 314), wherein the conductive shield sock (204; 204', 204"; 304', 304") comprises one or more sections, each section having two ends, and wherein all of the section ends are located between the cold shrink jacket (208; 308) and the splice body (206; 210, 212, 214; 310, 312, 314); and wherein at least one section of the shield sock (204; 204', 204"; 304', 304") comprises a folded portion that extends beyond one end of the splice body(206; 210, 212, 214; 310, 312, 314).
A tube cap for fitting over an acoustic port tube of a hearing aid receiver, comprising: a bridge for preventing direct ingress of wax into the acoustic port tube; a side barrier on each of the two sides of the bridge; an acoustic port inlet; and, wherein the bridge spans the acoustic port inlet and wherein the side barriers on each of the two sides of the bridge form two acoustic ports between the bridge and the two side barriers. a bridge for preventing direct ingress of wax into the acoustic port tube; a side barrier on each of the two sides of the bridge; an acoustic port inlet; and, wherein the bridge spans the acoustic port inlet and wherein the side barriers on each of the two sides of the bridge form two acoustic ports between the bridge and the two side barriers.
A color calibration system, comprising a color calibration device and a color calibration hologram, the color calibration device, calibrating colors in a captured image of a first imaging device between different imaging devices using the color calibration hologram in which diffracted light changes with an observation angle, the color calibration device comprising: a diffracted light spectral distribution calculation unit adapted to obtain a respective diffracted light spectral distribution of the diffracted light from the color calibration hologram; a camera sensitivity function estimation unit adapted to estimate spectral sensitivity of the imaging device from the respective diffracted light spectral distribution of the diffracted light and each captured image of the diffracted light; and a color calibration unit adapted to calibrate difference in color of the first imaging device relative to a second imaging device different from the first imaging device using the estimated spectral sensitivity, wherein the system is arranged such that the color calibration hologram is provided adjacent to an imaging object imaged as a captured image for calibration of the difference in color, wherein the imaging object is an anti-counterfeiting medium used for authentication determination of an article and having an observed light pattern changing with change in a light property as a property of irradiated light. a diffracted light spectral distribution calculation unit adapted to obtain a respective diffracted light spectral distribution of the diffracted light from the color calibration hologram; a camera sensitivity function estimation unit adapted to estimate spectral sensitivity of the imaging device from the respective diffracted light spectral distribution of the diffracted light and each captured image of the diffracted light; and a color calibration unit adapted to calibrate difference in color of the first imaging device relative to a second imaging device different from the first imaging device using the estimated spectral sensitivity, wherein the system is arranged such that the color calibration hologram is provided adjacent to an imaging object imaged as a captured image for calibration of the difference in color, wherein the imaging object is an anti-counterfeiting medium used for authentication determination of an article and having an observed light pattern changing with change in a light property as a property of irradiated light.
A method operational on an access terminal, comprising: maintaining an active set list of access nodes; obtaining a temporary unicast key for each access node in the active set; generating a first group key for the active set; encrypting the first group key with a first temporary unicast key for a first access node in the active set; sending the encrypted first group key to the first access node; encrypting the first group key with other temporary unicast keys for other access nodes in the active set; and sending each of the encrypted first group keys to a corresponding access node with which temporary unicast key it was encrypted. maintaining an active set list of access nodes; obtaining a temporary unicast key for each access node in the active set; generating a first group key for the active set; encrypting the first group key with a first temporary unicast key for a first access node in the active set; sending the encrypted first group key to the first access node; encrypting the first group key with other temporary unicast keys for other access nodes in the active set; and sending each of the encrypted first group keys to a corresponding access node with which temporary unicast key it was encrypted.
An arrangement for providing ventilation from an electronics device comprising a component generating heat while performing its function and a cover, wherein the cover comprises one or more openings to allow ventilation from an inside environment inside of the device to an outside environment outside to the device, the arrangement comprising: - means for changing size of at least one of the openings; and - a controller adapted to actuate the means to change size of at least one of the openings of the device characterized in that the cover encapsulates the component, and wherein the arrangement comprises a proximity sensor which is adapted to sense presence of an object in proximity to one or more of the openings, and which generates a proximity data, wherein the controller is adapted to receive and process the proximity data and to actuate the means for changing size of the one or more openings based on the proximity data. - means for changing size of at least one of the openings; and - a controller adapted to actuate the means to change size of at least one of the openings of the device
A solar panel provided with a stack comprising at least one solar cell and a back-sheet layer; the at least one solar cell being arranged as a back contacted solar cell with a front surface for receiving radiation and a rear surface provided with electrical contacts (15, 17); the solar panel further being arranged for electrically contacting to a junction box having one or more conductor contacts; the back-sheet layer having a surface provided with a patterned conductor circuit layer (20; 32, 33, 34) of a first conductive material, the conductor circuit layer (20; 32, 33, 34) being arranged with contacting areas each located at a location corresponding and aligned to a location of either one of the electrical contacts (15, 17) on the at least one solar cell or one of junction box conductor contacts; the at least one solar cell being arranged on top of the conductor circuit layer with the rear surface of the at least one solar cell facing the patterned conductor circuit surface (32, 33, 34); each electrical contact of the at least one solar cell or junction box conductor contact being in conductive contact with a corresponding one of the contacting areas on the conductor circuit by a body of conductive connecting material; characterized in that the first conductive material is an aluminum based metal, the conductor circuit layer comprises at the location of the contacting area a local patch (22; 22a) or islet of a second conductive material wherein each local patch is arranged in between the body of conductive connecting material on either the one electrical contact (15, 17) or the one junction box conductor contact and the layer of the first conductive material (20; 32, 33, 34), and the local patch (22; 22a) has penetrated a native oxide layer on the aluminum based metal and directly contacts the aluminum based metal.
A method implemented in a network comprising a plurality of network elements interconnected to one another by one or more links with Layer 1 Optical Transport Network bandwidth, the method comprising the steps of: selectively sampling bandwidth usage on user-network interface ports and network-network interface ports; defining a plurality of statistical parameters for using the sampling to determine whether to resize Optical channel Data Unit flex (ODUflex) connections on the user-network interface ports and the network-network interface ports; profiling UNI ports with ODUflex connections in the network based on the sampling; and adapting the network-network interface ports with the ODUflex connections for adjustments using a max-flow routing criterion based on the profiling. selectively sampling bandwidth usage on user-network interface ports and network-network interface ports; defining a plurality of statistical parameters for using the sampling to determine whether to resize Optical channel Data Unit flex (ODUflex) connections on the user-network interface ports and the network-network interface ports; profiling UNI ports with ODUflex connections in the network based on the sampling; and adapting the network-network interface ports with the ODUflex connections for adjustments using a max-flow routing criterion based on the profiling.
A protective film, comprising: a transparent film; a coating layer formed on one surface of the transparent film; and a primer layer formed on the other surface of the transparent film, wherein the transparent film is an acrylic film, wherein the coating layer is formed using a coating composition including a first polymer resin, a first cross-linking agent and first water dispersible particles, the primer layer is formed using a primer composition including a second polymer resin and second water dispersible particles, as well as including a second cross-linking agent in an amount lower than that of the first cross-linking agent, wherein the first polymer resin is a polyurethane resin, an acrylic resin, or a combination thereof, wherein the second polymer resin is a polyurethane resin, an acrylic resin, or a combination thereof, wherein the second cross-linking agent is included in the primer layer in an amount corresponding to 85% or less of that of the first cross-linking agent in the coating layer, wherein the primer layer has a thickness of 50 to 2000nm, the coating layer has a thickness of 50 to 2000nm, and the cross-linking agents include at least one selected from a group consisting of an oxazoline cross-linking agent, an organosilane cross-linking agent, a blocked isocyanate cross-linking agent, a carbodiimide cross-linking agent, an organic titanate cross-linking agent, an organic zirconate cross-linking agent, and an epoxy cross-linking agent.
A method of forming a tobacco pouch, comprising: providing a film tube having a length extending along a machine direction and a width extending along a transverse direction; sealing a bottom edge of the film tube with a first transverse heat seal and forming a first tobacco compartment with a first open end; filling the first tobacco compartment with an amount of tobacco; sealing the first open end with a second transverse heat seal to enclose the first tobacco compartment and form a second tobacco accessory compartment with a second open end; and sealing the second open end with a third transverse heat seal to enclose the second tobacco accessory compartment and form a second tobacco accessory compartment being free of tobacco. providing a film tube having a length extending along a machine direction and a width extending along a transverse direction; sealing a bottom edge of the film tube with a first transverse heat seal and forming a first tobacco compartment with a first open end; filling the first tobacco compartment with an amount of tobacco; sealing the first open end with a second transverse heat seal to enclose the first tobacco compartment and form a second tobacco accessory compartment with a second open end; and sealing the second open end with a third transverse heat seal to enclose the second tobacco accessory compartment and form a second tobacco accessory compartment being free of tobacco.
Method for estimating the externally applied wrench on the robot arm of a robot with a kinematic chain of robot arm members (22, 24) which are coupled by respective joints (22, 24), wherein the joints (22, 24) are driven by respective motors and wherein the robot comprises a robot controller which is adapted • to control the movement of the robot arm according to data of a robot program, and • to continuously provide • the torque vector τ mot of the joint (22, 24) motors, • the dynamic behavior of the robot arm,described by H q ⋅ q ̈ + C q q ̇ ⋅ q ̇ + τ grav q, • a torque vector τ grav ( q)which consists of torques due to gravity effects, • the current joint (22, 24) angles q of the robot arm, and • the Jacobian Matrix J of the robot arm which characterizes its kinematic chain, characterized by the following steps: • continuously estimating the friction torque vector τ fric based on a respective friction model of the joints (22, 24) and by using the speed vector q̇ which is derived from the current joint (22,24) angles q; • continuously determining the external torque vector Text by use of the following equation: τ ext = τ mot − H q ⋅ q ̈ + C q q ̇ ⋅ q ̇ + τ grav q + τ fric, • continuously estimating the externally applied wrench ƒ ext on the robot arm dependent on the current joint (22, 24) angles (q) based on the Jacobian matrix J and the external torque vector τ ext. • to control the movement of the robot arm according to data of a robot program, and • to continuously provide • the torque vector τ mot of the joint (22, 24) motors, • the dynamic behavior of the robot arm,described by H q ⋅ q ̈ + C q q ̇ ⋅ q ̇ + τ grav q, • a torque vector τ grav ( q)which consists of torques due to gravity effects, • the current joint (22, 24) angles q of the robot arm, and • the Jacobian Matrix J of the robot arm which characterizes its kinematic chain, • the torque vector τ mot of the joint (22, 24) motors, • the dynamic behavior of the robot arm,described by H q ⋅ q ̈ + C q q ̇ ⋅ q ̇ + τ grav q, • a torque vector τ grav ( q)which consists of torques due to gravity effects, • the current joint (22, 24) angles q of the robot arm, and • the Jacobian Matrix J of the robot arm which characterizes its kinematic chain, • continuously estimating the friction torque vector τ fric based on a respective friction model of the joints (22, 24) and by using the speed vector q̇ which is derived from the current joint (22,24) angles q; • continuously determining the external torque vector Text by use of the following equation: τ ext = τ mot − H q ⋅ q ̈ + C q q ̇ ⋅ q ̇ + τ grav q + τ fric, • continuously estimating the externally applied wrench ƒ ext on the robot arm dependent on the current joint (22, 24) angles (q) based on the Jacobian matrix J and the external torque vector τ ext.
Tubular shaped vascular prosthesis (10; 11), mainly extending along the longitudinal dimension, said vascular prosthesis (10; 11) comprising a main portion (20; 21), having a first (201; 201) and a second end (202; 212), and at least one end portion (30; 31) extending along said longitudinal dimension said at least one end portion (30; 31) is coupled with one of said first (201; 211) or second end (202; 212) of said main portion (20; 21), and can be coupled to the wall of a peripheral venous or arterial blood vessel, and has a cylindrical or troncoconical shape, so that said at least one end portion (30; 31) is capable to conform its cross-section to the alternate movement that can be created by a transverse or radial pulsating movement of said vessel to which it can be coupleable, characterized in that said at least one end portion (30;31) has an elasticity along its transverse direction with respect to said longitudinal dimension and said main portion (20;21) has an elasticity along said longitudinal direction.
Method for operation of a converter of wind energy installations, which comprises an inverter which drives a generator via a plurality of phases (X, Y, Z), and an intermediate circuit having an intermediate-circuit voltage between an upper and a lower intermediate-circuit potential, with the generator being driven with phase potentials at a variable frequency, characterized by calculation of a shift value between an extreme phase potential and one of the intermediate-circuit potentials, determination of a separation value between the middle phase potential and the closest intermediate-circuit potential, generation of an additional voltage using the separation value as amplitude, with the phase potentials being shifted through the shift value, and with the additional voltage being added to the middle phase potential.
A method of making a garment comprising an invisible barrier fabric seam, the method comprising the steps of: (a) providing an outer shell fabric laminate, an inner liner fabric, and a seam tape, the shell laminate comprising a shell fabric and a hydrophobic polymer membrane, and the seam tape comprising an adhesive layer and a hydrophobic polymer membrane, wherein the hydrophobic polymer membrane of the seam tape is disposed adjacent to the adhesive layer; (b) cutting a plurality of outer garment pieces from the shell laminate according to an outer garment pattern; (c) cutting a plurality of inner garment pieces from the liner fabric according to an inner garment pattern; wherein seam locations of the inner garment pattern overlap with seam locations of the outer garment pattern; (d) assembling one or more seams of an inner garment from the inner garment pieces and assembling one or more seams of an outer garment from the outer garment pieces; (e) attaching the seam tape to the membrane protective fabric along one or more of the assembled seams of the outer garment using heat or ultrasound energy, whereby the adhesive layer of the seam tape adheres to the hydrophobic polymer membrane of the shell laminate pieces; (f) aligning one or more of the assembled seams of the inner garment inside of the outer garment to form a composite garment, whereby the assembled seams of the inner garment are aligned with the seam tape attached to the outer garment; and (g) applying heat and/or pressure to one or more seams of the composite garment so as to seal the seams of the garment and join the inner and outer garments at one or more seams. (a) providing an outer shell fabric laminate, an inner liner fabric, and a seam tape, the shell laminate comprising a shell fabric and a hydrophobic polymer membrane, and the seam tape comprising an adhesive layer and a hydrophobic polymer membrane, wherein the hydrophobic polymer membrane of the seam tape is disposed adjacent to the adhesive layer; (b) cutting a plurality of outer garment pieces from the shell laminate according to an outer garment pattern; (c) cutting a plurality of inner garment pieces from the liner fabric according to an inner garment pattern; wherein seam locations of the inner garment pattern overlap with seam locations of the outer garment pattern; (d) assembling one or more seams of an inner garment from the inner garment pieces and assembling one or more seams of an outer garment from the outer garment pieces; (e) attaching the seam tape to the membrane protective fabric along one or more of the assembled seams of the outer garment using heat or ultrasound energy, whereby the adhesive layer of the seam tape adheres to the hydrophobic polymer membrane of the shell laminate pieces; (f) aligning one or more of the assembled seams of the inner garment inside of the outer garment to form a composite garment, whereby the assembled seams of the inner garment are aligned with the seam tape attached to the outer garment; and (g) applying heat and/or pressure to one or more seams of the composite garment so as to seal the seams of the garment and join the inner and outer garments at one or more seams.
A solar-powered ground plug repelling device, comprising: a casing assembled by a face cover and a bottom housing; a PCBA (Printed Circuit Board Assembly;) arranged in the casing; and a ground pipe, wherein a sliding groove assembly is provided on a surface of the bottom housing connected with the ground pipe and includes: two sliding grooves parallel to each other, wherein a sliding rail assembly is provided on an end of the ground pipe connected to the bottom housing and includes two sliding rails respectively movably connected to the two slide grooves, wherein two electrode elastic sheets connected to the PCBA are provided in the casing, and a connecting surface of the electrode elastic sheet protrudes from a perforation in a bottom plate of the bottom housing, and wherein the ground plug repelling device further comprises two electrode thimbles connected with the sliding rail assembly, and an end of the electrode thimble is exposed from a surface of the slide rail assembly. a casing assembled by a face cover and a bottom housing; a PCBA (Printed Circuit Board Assembly;) arranged in the casing; and a ground pipe, wherein a sliding groove assembly is provided on a surface of the bottom housing connected with the ground pipe and includes: two sliding grooves parallel to each other, wherein a sliding rail assembly is provided on an end of the ground pipe connected to the bottom housing and includes two sliding rails respectively movably connected to the two slide grooves, wherein two electrode elastic sheets connected to the PCBA are provided in the casing, and a connecting surface of the electrode elastic sheet protrudes from a perforation in a bottom plate of the bottom housing, and wherein the ground plug repelling device further comprises two electrode thimbles connected with the sliding rail assembly, and an end of the electrode thimble is exposed from a surface of the slide rail assembly.