mhurhangee/ep-ind-claims huggingface dataset:
An accelerometer system (102, 202), comprising: a flexural beam (104, 204) having a first face (112, 212) and a second face opposite the first face (112, 212); a first coil of optical fiber (130, 230) coupled to the first face (112, 212), and a second coil of optical fiber coupled to the second face, wherein the first coil of optical fiber (130, 230) is encapsulated by a cured encapsulation composition (132, 232), the encapsulation composition having a viscosity from 30 to 300 millipascal-second at 25°C, characterized in that the flexural beam (104, 204) comprises a channel configured to provide fluid communication between the first face (112, 212) and the second face prior to the encapsulation. a flexural beam (104, 204) having a first face (112, 212) and a second face opposite the first face (112, 212); a first coil of optical fiber (130, 230) coupled to the first face (112, 212), and a second coil of optical fiber coupled to the second face, wherein the first coil of optical fiber (130, 230) is encapsulated by a cured encapsulation composition (132, 232), the encapsulation composition having a viscosity from 30 to 300 millipascal-second at 25°C, characterized in that the flexural beam (104, 204) comprises a channel configured to provide fluid communication between the first face (112, 212) and the second face prior to the encapsulation.
A method for ex vivo expanding tumor-infiltrating lymphocytes comprising (a) culturing tumor fragments from a human subject in a first culture medium comprising IL-2 and a 4-1BB agonist antibody (b) removing at least a plurality of the TILs; and (c) expanding the TILs in a second cell culture medium comprising IL-2, CD3 antibody and irradiated peripheral blood mononuclear feeder cells. (a) culturing tumor fragments from a human subject in a first culture medium comprising IL-2 and a 4-1BB agonist antibody (b) removing at least a plurality of the TILs; and (c) expanding the TILs in a second cell culture medium comprising IL-2, CD3 antibody and irradiated peripheral blood mononuclear feeder cells.
An apparatus, comprising: a first protection circuit module comprising one or more inputs, a control interface, and an output coupled to a first node, wherein the first protection circuit module is configured when a value of a signal at the one or more inputs of the first protection circuit module (101 A) meets or exceeds one or more thresholds to activate the output coupled to the first node, activate a control signal at the control interface, and transition to an internal protection state; and a second protection circuit module comprising one or more inputs, a control interface, and an output coupled to a second node, wherein the second protection circuit module is configured when a value of a signal at the one or more inputs of the second protection circuit module meets or exceeds one or more thresholds to activate the output coupled to the second node, activate the control signal at the control interface, and transition to the internal protection state, wherein the control interface of the first protection circuit module is coupled to the control interface of the second protection circuit module, wherein the first protection circuit module is configured when the second protection circuit module activates the control signal to activate the output coupled to the first node and transition to an external protection state, and wherein the second protection circuit module is configured when the first protection circuit module activates the control signal to activate the output coupled to the second node and transition to the external protection state. a first protection circuit module comprising one or more inputs, a control interface, and an output coupled to a first node, wherein the first protection circuit module is configured when a value of a signal at the one or more inputs of the first protection circuit module (101 A) meets or exceeds one or more thresholds to activate the output coupled to the first node, activate a control signal at the control interface, and transition to an internal protection state; and a second protection circuit module comprising one or more inputs, a control interface, and an output coupled to a second node, wherein the second protection circuit module is configured when a value of a signal at the one or more inputs of the second protection circuit module meets or exceeds one or more thresholds to activate the output coupled to the second node, activate the control signal at the control interface, and transition to the internal protection state, wherein the control interface of the first protection circuit module is coupled to the control interface of the second protection circuit module, wherein the first protection circuit module is configured when the second protection circuit module activates the control signal to activate the output coupled to the first node and transition to an external protection state, and wherein the second protection circuit module is configured when the first protection circuit module activates the control signal to activate the output coupled to the second node and transition to the external protection state.
Energy supply network for the distribution of electrical energy from conventional P and regenerative energy sources S, W for supplying a plurality of consumers CC, CP, comprising at least one distribution device E, in particular several distribution devices E, forecasting an energy production by the regenerative energy sources S, W and measuring it by means of a measuring unit for a wind strength, weather state or water level or similar environmental influences, where at least some of the consumers CC, CP have a heating device, characterized in that at least a plurality of spatially decentrally distributed regenerative energy sources S, W, such as wind, photovoltaic, hydroelectric, geothermal and/or biogas power stations, is provided; that the energy supply network is a large-area electricity supply network in which the consumers CC, CP and their associated heating device are arranged spatially separated; that the at least one distribution device comprises a forecasting unit for assessing an expected energy delivery capacity of the renewable energy sources S, W, and makes a choice of the energy form for the respective heating device with regard to an optimum energy distribution and network utilization, and the forecasting unit forecasts an expected distributable energy delivery capacity of the regenerative energy sources S, W over a certain time in the future on the basis of climate data and/or historical electricity supply data and/or operator information; that the heating device of a respective consumer CP, CC comprises a switching device for switching between heating with conventional heating fuel and heating with electricity on the basis of a control signal of the distribution device E, and the control signal can be generated at least on the basis of a current or expected energy delivery capacity of the regenerative energy sources S, W for load distribution inside the energy supply network; and that switching between different energy forms in the respective heating device can be performed centrally and selectively for the respective heating device and remotely controlled by the distribution device E in order to distribute regeneratively generated energy evenly inside the energy supply network.
A method for updating a controller of a primary device of a power substation, the method is characterized by comprising the steps: receiving an actual time (t g) from a time server via a cell phone communication network with a mobile device; sending, with the mobile device, the actual time (t g) via a local wireless communication network to the controller. receiving an actual time (t g) from a time server via a cell phone communication network with a mobile device; sending, with the mobile device, the actual time (t g) via a local wireless communication network to the controller.
A bifacial solar cell module comprising: a plurality of bifacial solar cells; a light transmitting first substrate positioned at a first surface side of the bifacial solar cells; a light transmitting second substrate positioned at the second surface side of the bifacial solar cells; and a seal member positioned between the first substrate and the second substrate and sealing the solar cells, the seal member being made of a sealing material of at least one layer (51, 53), wherein at least one of the first substrate and the second substrate is made of an ethylene tetrafluoroethylene copolymer (ETFE), characterized in that in the ETFE light transmittance is 85% or more and light absorptance is 5% or less in a wavelength band of 400 nm to 1200 nm, wherein the substrate (30, 40) made of the ETFE has a first surface processed layer at the surface contacting with the seal member, the first surface processed layer being a primer layer for reinforcing adhesive strength with the seal member, wherein the substrate (30, 40) made of the ETFE has a second surface processed layer at the surface opposite to the surface contacting with the seal member, the second surface processed layer being made of a hydrophobic material for preventing moisture penetration. a plurality of bifacial solar cells; a light transmitting first substrate positioned at a first surface side of the bifacial solar cells; a light transmitting second substrate positioned at the second surface side of the bifacial solar cells; and a seal member positioned between the first substrate and the second substrate and sealing the solar cells, the seal member being made of a sealing material of at least one layer (51, 53), wherein at least one of the first substrate and the second substrate is made of an ethylene tetrafluoroethylene copolymer (ETFE), characterized in that in the ETFE light transmittance is 85% or more and light absorptance is 5% or less in a wavelength band of 400 nm to 1200 nm, wherein the substrate (30, 40) made of the ETFE has a first surface processed layer at the surface contacting with the seal member, the first surface processed layer being a primer layer for reinforcing adhesive strength with the seal member, wherein the substrate (30, 40) made of the ETFE has a second surface processed layer at the surface opposite to the surface contacting with the seal member, the second surface processed layer being made of a hydrophobic material for preventing moisture penetration.
An implantable medical device comprising: a microprocessor configured to control operation of the IMD; a pressure sensor coupled with the microprocessor and configured to provide ventricular pressure data to the microprocessor; and an impedance sensor coupled with the microprocessor and configured to provide ventricular impedance data to the microprocessor, characterized in that the microprocessor is configured to calculate a phase relationship between the ventricular pressure data and the ventricular impedance data and determine hemodynamic stability based upon a comparison of the calculated phase relationship to a predetermined out of phase relationship between the ventricular pressure data and the ventricular impedance data corresponding to a sinus rhythm. a microprocessor configured to control operation of the IMD; a pressure sensor coupled with the microprocessor and configured to provide ventricular pressure data to the microprocessor; and an impedance sensor coupled with the microprocessor and configured to provide ventricular impedance data to the microprocessor, characterized in that the microprocessor is configured to calculate a phase relationship between the ventricular pressure data and the ventricular impedance data and determine hemodynamic stability based upon a comparison of the calculated phase relationship to a predetermined out of phase relationship between the ventricular pressure data and the ventricular impedance data corresponding to a sinus rhythm.
A catheter adapted for use in a cavity between epicardial and pericardial tissue of a heart, comprising: an elongated catheter body; an electrode assembly distal the catheter body, the electrode assembly including a tip section and a separate loop member both lying generally within a plane, the tip section including an ablation electrode exposed on one side of the loop member and coplanar with the loop member and an insulation member exposed on the opposite side of the loop member, the loop member including a plurality of sensing electrodes; an intermediate section extending between the catheter body and the electrode assembly and comprising a pair of diametrically opposing lumens (26, 27); a pair of puller wires extending through the catheter body and through respective ones of the, diametrically opposed opposing lumens of through the intermediate section; wherein the intermediate section is configured such that the puller wires, when manipulated, cause it to flex and thereby to deflect the loop member and the tip-section bi-directionally within the plane; and. wherein the tip section is connected to the intermediate section by a connective tubing and the loop member is an open-ended loop having a generally circular main portion extending distally around the ablation electrode and a generally straight portion that extends from the connective tubing. an elongated catheter body; an electrode assembly distal the catheter body, the electrode assembly including a tip section and a separate loop member both lying generally within a plane, the tip section including an ablation electrode exposed on one side of the loop member and coplanar with the loop member and an insulation member exposed on the opposite side of the loop member, the loop member including a plurality of sensing electrodes; an intermediate section extending between the catheter body and the electrode assembly and comprising a pair of diametrically opposing lumens (26, 27); a pair of puller wires extending through the catheter body and through respective ones of the, diametrically opposed opposing lumens of through the intermediate section;
A method comprising: generating a parametrized three-dimensional body surface model, which encodes at least one body type parameter representing a skeletal deformity; receiving one or more target 3D scans of a target subject; optimizing said body surface model with respect to said one or more target 3D scans, based, at least in part, on minimizing a loss function which registers said body surface model to said target 3D scans, to calculate a target body surface model of said target subject; training a skeletal estimation model, based, at least in part, on a training set comprising: (i) body surface models of a plurality of subjects, and (ii) skeletal landmarks sets of said plurality of subjects; and applying said trained skeletal estimation model to said calculated target body surface model of said target subject, to estimate a skeletal shape of said target subject, wherein at least some of said one or more target 3D scans are labelled with a pose of said subject associated with a respective target 3D scan, wherein generating the parameterized 3D body surface model comprises training said 3D body surface model based on a training set comprising a plurality of 3D scans of subjects, wherein at least some of said 3D scans are of subjects having said skeletal deformity, and wherein at least some of said plurality of 3D scans are labelled with said skeletal deformity. generating a parametrized three-dimensional body surface model, which encodes at least one body type parameter representing a skeletal deformity; receiving one or more target 3D scans of a target subject; optimizing said body surface model with respect to said one or more target 3D scans, based, at least in part, on minimizing a loss function which registers said body surface model to said target 3D scans, to calculate a target body surface model of said target subject; training a skeletal estimation model, based, at least in part, on a training set comprising: (i) body surface models of a plurality of subjects, and (ii) skeletal landmarks sets of said plurality of subjects; and (i) body surface models of a plurality of subjects, and (ii) skeletal landmarks sets of said plurality of subjects; and applying said trained skeletal estimation model to said calculated target body surface model of said target subject, to estimate a skeletal shape of said target subject, wherein at least some of said one or more target 3D scans are labelled with a pose of said subject associated with a respective target 3D scan, wherein generating the parameterized 3D body surface model comprises training said 3D body surface model based on a training set comprising a plurality of 3D scans of subjects, wherein at least some of said 3D scans are of subjects having said skeletal deformity, and wherein at least some of said plurality of 3D scans are labelled with said skeletal deformity.
A method for the manufacture of bisphenol A comprising: a) reacting phenol and acetone in the presence of an acidic catalyst to form a reaction product comprising an initial concentration of bisphenol A and an initial concentration of impurities; b) diluting the reaction product with phenol, water and/or acetone, so as to decrease the impurity concentration to 50 % or less of the initial concentration of impurities, and adding bisphenol A to increase the concentration thereof in the reaction product; and thereafter c) crystallising a bisphenol A/phenol adduct from the reaction product to produce a crystallised bisphenol A product. a) reacting phenol and acetone in the presence of an acidic catalyst to form a reaction product comprising an initial concentration of bisphenol A and an initial concentration of impurities; b) diluting the reaction product with phenol, water and/or acetone, so as to decrease the impurity concentration to 50 % or less of the initial concentration of impurities, and adding bisphenol A to increase the concentration thereof in the reaction product; and thereafter c) crystallising a bisphenol A/phenol adduct from the reaction product to produce a crystallised bisphenol A product.
An angle valve structure, comprising an angle valve body, a water inlet channel and a water outlet channel are arranged in the angle valve body, an accommodation cavity respectively communicated with the water inlet channel and the water outlet channel is arranged between the water inlet channel and the water outlet channel, and a valve core is rotatably arranged in the accommodation cavity, a knob is fixedly connected to one end of the valve core exposed outside the accommodation cavity, characterized in that the valve core is provided with a sealing block for sealing the water outlet channel; the valve core comprises a main body part and an elastic arm whose one end is connected with the main body part, one side of the main body part is provided with a mounting slot for placing the sealing block, one side of the elastic arm is provided with an extrusion portion, and the other side of the elastic arm is provided with a contact portion extending into the mounting slot and butting against the sealing block after assembly; when the angle valve is closed, the extrusion portion butts against an inner wall of the accommodation cavity, so that the contact portion butts the sealing block against the water outlet channel under an action of the inner wall of the accommodation cavity to complete sealing; when the angle valve is opened, the extrusion portion butts against the inner wall of the accommodation cavity, so that the contact portion butts the sealing block against the inner wall of the accommodation cavity.
A module for insertion into a housing or for removal from a housing comprising a base body having a front wall and a rear wall, wherein parallel elongate strip parts extend between the front wall and the rear wall, the longitudinal extension or dimension thereof spaces apart the front wall and the rear wall, wherein at least one strip part has a guide leg for cooperation with a guide counter-element of the housing, characterized in that the at least one strip part is configured to be Y-shaped in cross-section.
A method for configuring resource carried out in a user equipment, UE, comprising: receiving first information from a network-side, wherein the first information indicates to the UE configurations of bandwidth parts for multiple slots or mini-slots in a period of time, and the bandwidth parts comprise a first bandwidth part and a second bandwidth part; activating at a time, for a first slot or mini-slot, the first bandwidth part among the configured bandwidth parts following a time-domain structure, wherein the first bandwidth part is determined as an active bandwidth part; when a time duration corresponding to the active bandwidth part has elapsed, turning the active bandwidth part, for a second slot or mini-slot, to the second bandwidth part of the configured bandwidth parts; wherein the configurations of the bandwidth parts comprise the following of each of the bandwidth parts: a size, a position in frequency-domain, and information of configuration of at least one reference signal, wherein the configurations of the bandwidth parts comprise the time-domain structure. receiving first information from a network-side, wherein the first information indicates to the UE configurations of bandwidth parts for multiple slots or mini-slots in a period of time, and the bandwidth parts comprise a first bandwidth part and a second bandwidth part; activating at a time, for a first slot or mini-slot, the first bandwidth part among the configured bandwidth parts following a time-domain structure, wherein the first bandwidth part is determined as an active bandwidth part; when a time duration corresponding to the active bandwidth part has elapsed, turning the active bandwidth part, for a second slot or mini-slot, to the second bandwidth part of the configured bandwidth parts; wherein the configurations of the bandwidth parts comprise the following of each of the bandwidth parts: a size, a position in frequency-domain, and information of configuration of at least one reference signal, wherein the configurations of the bandwidth parts comprise the time-domain structure.