mhurhangee/patent-ind-claim-en huggingface dataset:
A biological signal detection device comprising: a base cushioning member including: a base-side net having a three-dimensional knitted fabric; and a sensor disposed on one surface or another surface of the base-side net ; and a body abutting-side cushioning member stacked on the base cushioning member and including a body abutting-side net which has a three-dimensional knitted fabric and is disposed on a side abutting on a body of a person, characterized in that the base cushioning member and the body abutting-side cushioning member are both substantially circular in plan view, wherein the body abutting-side cushioning member is stacked on the base cushioning member with a shaft member provided between center portions of the body abutting-side cushioning member and the base cushioning member , and wherein the sensor is disposed in a range clear of the shaft member . a base cushioning member including: a base-side net having a three-dimensional knitted fabric; and a sensor disposed on one surface or another surface of the base-side net ; and a body abutting-side cushioning member stacked on the base cushioning member and including a body abutting-side net which has a three-dimensional knitted fabric and is disposed on a side abutting on a body of a person, characterized in that the base cushioning member and the body abutting-side cushioning member are both substantially circular in plan view, wherein the body abutting-side cushioning member is stacked on the base cushioning member with a shaft member provided between center portions of the body abutting-side cushioning member and the base cushioning member , and wherein the sensor is disposed in a range clear of the shaft member .
A vapor production device , comprising: an air inlet ; an air pump in fluid communication with the air inlet; a heating center in fluid communication with the air pump, the heating center having: a chamber configured to receive vaporizable material ; and a heater; a compressor in fluid communication with the heating center; an outlet in fluid communication with the compressor; and a control panel , wherein: the air pump is configured to supply ambient air to the heating center; the heater is configured to heat the vaporizable material received in the chamber to a vaporization temperature to produce vaporized material; the heating center is configured to supply the ambient air supplied by the air pump and the vaporized material produced by the heater to the compressor ; the compressor is configured to compress the ambient air supplied by the heating center and the vaporized material supplied by the heating center to form a compressed mixture, and to deliver the formed mixture to the outlet; the outlet is configured to deliver the compressed mixture delivered by the compressor to a storage container; and the control panel is configured to regulate power delivered to the heating center to convert vaporizable material to vaporized material at a vaporization temperature, and to control the compressor to deliver an optimal pressure for storage of the vaporized material, such that the compressor regulates a level of compression at which the compressed mixture is formed depending on a type of the storage container and a type of the vaporizable material. an air inlet ; an air pump in fluid communication with the air inlet; a heating center in fluid communication with the air pump, the heating center having: a chamber configured to receive vaporizable material ; and a heater; a chamber configured to receive vaporizable material ; and a heater; a compressor in fluid communication with the heating center; an outlet in fluid communication with the compressor; and a control panel , wherein: the air pump is configured to supply ambient air to the heating center; the heater is configured to heat the vaporizable material received in the chamber to a vaporization temperature to produce vaporized material; the heating center is configured to supply the ambient air supplied by the air pump and the vaporized material produced by the heater to the compressor ; the compressor is configured to compress the ambient air supplied by the heating center and the vaporized material supplied by the heating center to form a compressed mixture, and to deliver the formed mixture to the outlet; the outlet is configured to deliver the compressed mixture delivered by the compressor to a storage container; and the control panel is configured to regulate power delivered to the heating center to convert vaporizable material to vaporized material at a vaporization temperature, and to control the compressor to deliver an optimal pressure for storage of the vaporized material, such that the compressor regulates a level of compression at which the compressed mixture is formed depending on a type of the storage container and a type of the vaporizable material.
A synthetic peptide sp2 consisting of the amino acid sequence of SEQ ID NO.1.
Process for polymerisation by means of heat treatment of esters of unsaturated fatty acids, alone or in admixture with polyterpenes, characterised in that there are added to the reaction mixture from 1 to 6% by weight of the mixture of one or more compounds chosen from glycerol, polyglycerol, sorbitol, monoethanolamine MEA and vitamins C and E.
A method for mitigating unintended operation of in-vehicle controls comprising: receiving data or signals from one or more sensors that track vehicle direction and/or dynamic state at a processor ; analyzing the received data or signals at the processor to determine when one or more criteria are met; determining that an identified state of the vehicle is occurring responsive to the analysis of the processor determining that the one or more criteria are met; and modifying, under instruction from the processor, responses to one or more vehicle controls when the identified state of the vehicle is determined to be occurring , characterized in that modifying responses to one or more vehicle controls comprises requiring a longer time duration of operation of the one or more vehicle controls to activate one or more corresponding functions. receiving data or signals from one or more sensors that track vehicle direction and/or dynamic state at a processor ; analyzing the received data or signals at the processor to determine when one or more criteria are met; determining that an identified state of the vehicle is occurring responsive to the analysis of the processor determining that the one or more criteria are met; and modifying, under instruction from the processor, responses to one or more vehicle controls when the identified state of the vehicle is determined to be occurring , characterized in that modifying responses to one or more vehicle controls comprises requiring a longer time duration of operation of the one or more vehicle controls to activate one or more corresponding functions.
A sole structure for an article of footwear having an upper , the sole structure comprising: a plate including (i) a base having a first surface configured to face the upper and a second surface formed on an opposite side of the base than the first surface ; (ii) a rib extending from the second surface in a direction away from the upper , the rib including a generally U-shape having a first portion extending along a medial side of the plate , a second portion extending along a lateral side of the plate , and a third portion extending between the first portion and the second portion and being separated from the first portion by a first break and separated from the second portion by a second break ; and (iii) a first notch extending inwardly from a peripheral edge of the plate , characterized by the first notch being aligned with one of the first break and the second break .
A button safety cap for a fluid infusion device: the fluid infusion device comprising a cannula insertion mechanism, the cannula insertion mechanism comprising an insertion mechanism activation button extending from a housing of the fluid infusion device; and the button safety cap characterized in a pull member ; at least one stabilizing arm adapted to prevent rotation and/or translation of the button safety cap relative to at least one of the activation button and the fluid delivery device upon which the button safety cap is assembled; and a flexible snap feature adapted to engage the activation button ; wherein the snap feature retains the button safety cap on the activation button until a predetermined removal force is applied to the button safety cap ; wherein the pull member , the at least one stabilizing arm and the snap feature of the button safety cap are configured as a single molded part; and wherein the single molded part is removable from the fluid infusion device. the fluid infusion device comprising a cannula insertion mechanism, the cannula insertion mechanism comprising an insertion mechanism activation button extending from a housing of the fluid infusion device; and the button safety cap characterized in a pull member ; at least one stabilizing arm adapted to prevent rotation and/or translation of the button safety cap relative to at least one of the activation button and the fluid delivery device upon which the button safety cap is assembled; and a flexible snap feature adapted to engage the activation button ; a pull member ; at least one stabilizing arm adapted to prevent rotation and/or translation of the button safety cap relative to at least one of the activation button and the fluid delivery device upon which the button safety cap is assembled; and a flexible snap feature adapted to engage the activation button ; wherein the snap feature retains the button safety cap on the activation button until a predetermined removal force is applied to the button safety cap ; wherein the pull member , the at least one stabilizing arm and the snap feature of the button safety cap are configured as a single molded part; and wherein the single molded part is removable from the fluid infusion device.
A hybrid wind power tower based on edge-stiffened combined shells, wherein the hybrid wind power tower comprises a pure steel tower , a combined tower , bolts , flange plates , studs , angle steel and T-shaped steel ; an upper part of the hybrid wind power tower is the pure steel tower while a lower part thereof is the combined tower , and the pure steel tower and the combined tower are connected by the flange plates and the bolts ; wherein the combined tower is formed by assembling 2 to 8 edge-stiffened combined shells in a circumferential direction, and is assembled in segments in a vertical direction; each of the edge-stiffened combined shells consists of a hollow concrete-filled steel tube structure , and external plates , internal plates and stiffening plates arranged around the hollow concrete-filled steel tube structure ; and, adjacent edge-stiffened combined shells are connected by the bolts ; wherein the hollow concrete-filled steel tube structure consists of an outer steel tube , an inner steel tube and concrete , wherein the internal plates are welded on upper, lower, left and right sides of the hollow concrete-filled steel tube structure ; the periphery of the outer steel tube is extended outward by a certain distance and then welded with the external plates , and bolt holes are reserved on the external plates ; and, a certain number of stiffening plates are uniformly arranged between the external plates and the internal plates to form a peripheral edge-stiffened region. wherein the combined tower is formed by assembling 2 to 8 edge-stiffened combined shells in a circumferential direction, and is assembled in segments in a vertical direction; each of the edge-stiffened combined shells consists of a hollow concrete-filled steel tube structure , and external plates , internal plates and stiffening plates arranged around the hollow concrete-filled steel tube structure ; and, adjacent edge-stiffened combined shells are connected by the bolts ; wherein the hollow concrete-filled steel tube structure consists of an outer steel tube , an inner steel tube and concrete , wherein the internal plates are welded on upper, lower, left and right sides of the hollow concrete-filled steel tube structure ; the periphery of the outer steel tube is extended outward by a certain distance and then welded with the external plates , and bolt holes are reserved on the external plates ; and, a certain number of stiffening plates are uniformly arranged between the external plates and the internal plates to form a peripheral edge-stiffened region.
An apparatus for the treatment of a soft tissue injury including associated inflammation comprising: a thermal scanning arrangement adapted to scan at least a portion of a patient to provide a thermal image or a thermal dataset; a processing arrangement adapted to review the thermal image or the thermal dataset to determine a point or region of thermal anomaly on the patient; a laser treatment device to provide a laser beam, wherein the laser treatment device is adapted to provide laser treatment radiation at a wavelength in the range of 800 nm to 900 nm; and a guidance arrangement comprising an orientable arm attached to the laser treatment device and adapted to guide the laser beam to the point or region of thermal anomaly on the patient as determined by the processing arrangement, to thereby treat the patient. a thermal scanning arrangement adapted to scan at least a portion of a patient to provide a thermal image or a thermal dataset; a processing arrangement adapted to review the thermal image or the thermal dataset to determine a point or region of thermal anomaly on the patient; a laser treatment device to provide a laser beam, wherein the laser treatment device is adapted to provide laser treatment radiation at a wavelength in the range of 800 nm to 900 nm; and a guidance arrangement comprising an orientable arm attached to the laser treatment device and adapted to guide the laser beam to the point or region of thermal anomaly on the patient as determined by the processing arrangement, to thereby treat the patient.
A preparation method of an electrode for electrolysis, comprising the steps of: preparing a coating solution for preparing an electrode containing a platinum group metal precursor, a rare earth metal precursor, an organic solvent, and an amine-based solvent; applying the coating solution for preparing an electrode on a metal substrate to form a catalyst layer; drying the catalyst layer; and heat-treating the catalyst layer; wherein the platinum group metal precursor is at least one selected from the group consisting of ruthenium chloride hydrate (RuCl 3 • nH 2 O), tetraamine platinum(II) chloride hydrate (Pt(NH 3 ) 4 Cl 2 • H 2 O), rhodium chloride (RhCl 3 ), rhodium nitrate hydrate (Rh(NO 3 ) 3 • nH 2 O), iridium chloride hydrate (IrCl 3 • nH 2 O), and palladium nitrate (Pd(NO 3 ) 2 ); the rare earth metal precursor is at least one selected from the group consisting of cerium(III) nitrate (Ce(NO 3 ) 3 ), cerium( III) carbonate (Ce 2 (CO 3 ) 3 ), cerium(III) chloride (CeCl 3 ), yttrium oxide (Y 2 O 3 ), and yttrium carbonate (Y 2 (CO 3 ) 3 ); and the amine-based solvent is at least one selected from the group consisting of octylamine, decylamine, dodecylamine, oleylamine, laurylamine, and hexadecylamine, the amine-based solvent is present in an amount of 3 to 40 vol% based on 100 vol% of the coating solution for preparing an electrode. preparing a coating solution for preparing an electrode containing a platinum group metal precursor, a rare earth metal precursor, an organic solvent, and an amine-based solvent; applying the coating solution for preparing an electrode on a metal substrate to form a catalyst layer; drying the catalyst layer; and heat-treating the catalyst layer; wherein the platinum group metal precursor is at least one selected from the group consisting of ruthenium chloride hydrate (RuCl 3 • nH 2 O), tetraamine platinum(II) chloride hydrate (Pt(NH 3 ) 4 Cl 2 • H 2 O), rhodium chloride (RhCl 3 ), rhodium nitrate hydrate (Rh(NO 3 ) 3 • nH 2 O), iridium chloride hydrate (IrCl 3 • nH 2 O), and palladium nitrate (Pd(NO 3 ) 2 ); the rare earth metal precursor is at least one selected from the group consisting of cerium(III) nitrate (Ce(NO 3 ) 3 ), cerium( III) carbonate (Ce 2 (CO 3 ) 3 ), cerium(III) chloride (CeCl 3 ), yttrium oxide (Y 2 O 3 ), and yttrium carbonate (Y 2 (CO 3 ) 3 ); and the amine-based solvent is at least one selected from the group consisting of octylamine, decylamine, dodecylamine, oleylamine, laurylamine, and hexadecylamine, the amine-based solvent is present in an amount of 3 to 40 vol% based on 100 vol% of the coating solution for preparing an electrode.
A control system for controlling an operation of a spacecraft , comprising: a model predictive controller (MPC) to produce a solution for controlling thrusters of the spacecraft by optimizing a cost function over a finite receding horizon using a model of dynamics of the spacecraft effecting a pose of the spacecraft and a model of dynamics of momentum exchange devices of the spacecraft effecting an orientation of the spacecraft , wherein the optimization is subject to hard constraints on angles of thrusts generated by thrusters of the spacecraft , wherein the hard constraints requires the angles of thrusts in the solution to fall within a predetermined range defined by the hard constraints; and a thruster controller to operate the thrusters according to the solution of the MPC, characterized in that the optimization is subject to soft constraints on angles of thrusts generated by thrusters of the spacecraft and wherein the soft constraints penalize the solution for deviation of the angles of thrusts from nominal angles corresponding to a torque-free thrust passing through the center of the mass of the spacecraft . a model predictive controller (MPC) to produce a solution for controlling thrusters of the spacecraft by optimizing a cost function over a finite receding horizon using a model of dynamics of the spacecraft effecting a pose of the spacecraft and a model of dynamics of momentum exchange devices of the spacecraft effecting an orientation of the spacecraft , wherein the optimization is subject to hard constraints on angles of thrusts generated by thrusters of the spacecraft , wherein the hard constraints requires the angles of thrusts in the solution to fall within a predetermined range defined by the hard constraints; and a thruster controller to operate the thrusters according to the solution of the MPC, characterized in that the optimization is subject to soft constraints on angles of thrusts generated by thrusters of the spacecraft and wherein the soft constraints penalize the solution for deviation of the angles of thrusts from nominal angles corresponding to a torque-free thrust passing through the center of the mass of the spacecraft .
Method of injection molding, wherein a product is produced by an injection molding apparatus through an injection molding process from a precursor charge of precursor material based on process settings applied to the injection molding apparatus , wherein the injection molding process comprises injecting the precursor charge into a mold of the injection molding apparatus , wherein the precursor charge is produced through a precursor production process described by precursor production parameters , wherein the applied process settings are determined prior to the injection molding process by a computer simulation of the injection molding process executed by a computing apparatus , which computer simulation is based on a simulation model and on given process conditions of the injection molding process, which given process conditions comprise a shape of the mold , characterized in that, the computer simulation is also based on the precursor production parameters and in that the product is measured for determining product data by a product measurement apparatus and a quality metric is applied to the product data to determine a metric result for describing conformity of the product with a product target specification prescribing product properties and that the simulation model is updated by the computing apparatus based on the product data , the product target specification and the metric result.
An anti-theft device comprising a first shaped body having a first mounting portion for mounting said device on an object to be protected and a second detection portion for supporting/housing means of signalling/detection, said first mounting portion including a first mounting surface and a first cavity housing first locking means , said anti-theft device further comprising a second shaped body comprising a first locking portion positioned internally to said first cavity and a second mounting portion comprising a second mounting surface , said first locking portion comprising second locking means coupled to said first locking means , the actioning of said first locking means determining the sliding of said second shaped body within said first cavity and the movement of said second mounting surface toward said first mounting surface , characterized in that said second shaped body has a substantially parallelepipedic shape, with a first , second , third and fourth side that define an internal open space .
A computer-implemented method for authenticating a transaction initiated with a mobile device , comprising: receiving (S7), from a point-of-sale system associated with a merchant, a cryptogram, an account identifier, and transaction data corresponding to a transaction between a user of the mobile device and the point-of-sale system , the cryptogram generated by the mobile device based on a limited use key, the limited use key generated by the mobile device based on at least one biometric input of the user; retrieving (S8), with at least one processor, stored biometric data corresponding to the account identifier; generating (S8), with at least one processor, a recreated limited use key based at least partially on the stored biometric data; generating (S8), with at least one processor, a recreated cryptogram based at least partially on the recreated limited use key; comparing (S9), with at least one processor, the recreated cryptogram to the cryptogram received from the point-of-sale system; and in response to determining that the recreated cryptogram matches the cryptogram received from the point-of-sale system , authenticating (S10) the transaction with at least one processor. receiving (S7), from a point-of-sale system associated with a merchant, a cryptogram, an account identifier, and transaction data corresponding to a transaction between a user of the mobile device and the point-of-sale system , the cryptogram generated by the mobile device based on a limited use key, the limited use key generated by the mobile device based on at least one biometric input of the user; retrieving (S8), with at least one processor, stored biometric data corresponding to the account identifier; generating (S8), with at least one processor, a recreated limited use key based at least partially on the stored biometric data; generating (S8), with at least one processor, a recreated cryptogram based at least partially on the recreated limited use key; comparing (S9), with at least one processor, the recreated cryptogram to the cryptogram received from the point-of-sale system; and in response to determining that the recreated cryptogram matches the cryptogram received from the point-of-sale system , authenticating (S10) the transaction with at least one processor.