mhurhangee/patent-ind-claim-en huggingface dataset:
A method for measuring an immunostimulatory response of an immune cell, comprising: (i) bringing a measurement target immune cell into contact with an immunostimulator; (ii) forming a contact surface with a substance different from the measurement target immune cell on the measurement target immune cell; eliminating the contact surface; (iii) bringing the measurement target immune cell into contact with a capturing body that binds to a surface antigen on the contact surface and is capable of generating an optical signal; (iv) detecting the optical signal generated from the capturing body; and (v) determining whether or not the measurement target immune cell from which the contact surface has been eliminated before detecting the optical signal has an immunostimulatory response, based on the detected optical signal. (i) bringing a measurement target immune cell into contact with an immunostimulator; (ii) forming a contact surface with a substance different from the measurement target immune cell on the measurement target immune cell; eliminating the contact surface; (iii) bringing the measurement target immune cell into contact with a capturing body that binds to a surface antigen on the contact surface and is capable of generating an optical signal; (iv) detecting the optical signal generated from the capturing body; and (v) determining whether or not the measurement target immune cell from which the contact surface has been eliminated before detecting the optical signal has an immunostimulatory response, based on the detected optical signal.
Load carrier , in particular a carrier for bicycles and/or luggage, for attachment to the rear side of a vehicle, with a basic structure having a basic frame and a coupling device for attachment to a vehicle arranged at a front end of the basic frame , a sliding frame for receiving a load, in particular for receiving bicycles or a luggage box, wherein the sliding frame is slidingly movable relative to the basic frame between a front transport position and a rear access position, and a functional device , which is movably held at the basic frame , in particular at a rear end section of the basic frame , between a working position, in which the functional device extends at least partially into the movement range of the sliding frame , and a release position, in which the functional device is moved out of the movement range of the sliding frame allowing to move the sliding frame into its rear access position. a basic structure having a basic frame and a coupling device for attachment to a vehicle arranged at a front end of the basic frame , a sliding frame for receiving a load, in particular for receiving bicycles or a luggage box, wherein the sliding frame is slidingly movable relative to the basic frame between a front transport position and a rear access position, and a functional device , which is movably held at the basic frame , in particular at a rear end section of the basic frame , between a working position, in which the functional device extends at least partially into the movement range of the sliding frame , and a release position, in which the functional device is moved out of the movement range of the sliding frame allowing to move the sliding frame into its rear access position.
A method for attaching an electronic identification tag to a solid surface and protecting the electronic identification tag, the solid surface being of a part to identify and the electronic identification tag having a first surface and a second surface opposite the first surface, the method comprising: - identifying , with a camera, an attachment site on the solid surface , wherein identifying the attachment site comprises image recognition and/or pattern recognition of the solid surface and lookup in a database and/or table comprising attachment site data of a plurality of solid surfaces including the solid surface , and wherein the attachment site data comprise instructions for the attachment site on the solid surface ; - positioning the first surface of the electronic identification tag in contact with the attachment site of the solid surface ; - applying a predetermined amount of a first adhesive substance on the second surface , the first adhesive substance being plastic during application and curable after application, the first adhesive substance having a first viscosity at the time of application; - forming the first adhesive substance , such that the first adhesive substance covers the electronic identification tag and abut a part of the solid surface circumscribing the electronic identification tag ; and - curing the first adhesive substance . - identifying , with a camera, an attachment site on the solid surface , wherein identifying the attachment site comprises image recognition and/or pattern recognition of the solid surface and lookup in a database and/or table comprising attachment site data of a plurality of solid surfaces including the solid surface , and wherein the attachment site data comprise instructions for the attachment site on the solid surface ; - positioning the first surface of the electronic identification tag in contact with the attachment site of the solid surface ; - applying a predetermined amount of a first adhesive substance on the second surface , the first adhesive substance being plastic during application and curable after application, the first adhesive substance having a first viscosity at the time of application; - forming the first adhesive substance , such that the first adhesive substance covers the electronic identification tag and abut a part of the solid surface circumscribing the electronic identification tag ; and - curing the first adhesive substance .
Cutting grinder for cutting through a rail of a track, with - a base body , - a drive for driving a cutting disc in rotation about a rotational axis , - at least one handle for manually guiding the cutting grinder , characterized by a detection device comprising at least one sensor for detecting a first cutting position (P1) in which the cutting grinder is arranged on a first side (S1) of a rail symmetry plane (S), and for detecting a second cutting position (P2) in which the cutting grinder is arranged on a second side (S2) of a rail symmetry plane (S), and by a control unit for setting a rotational direction (D1, D2) of the drive depending on the respective detected cutting position (P1, P2). - a base body , - a drive for driving a cutting disc in rotation about a rotational axis , - at least one handle for manually guiding the cutting grinder ,
Double clutch system for a motor vehicle drivetrain , having - a casing , - a first and a second friction clutch which are arranged in the casing so as to be offset in an axial direction and which form a clutch device with a first axial side and a second axial side , and - a first actuator for actuating the first friction clutch and a second actuator for actuating the second friction clutch , and - an axial support device which is arranged in an axial direction between the first and the second friction clutch , wherein the axial support device has a first support element for the first friction clutch and a second support element for the second friction clutch , wherein the double clutch system is of substantially symmetrical form with respect to a radial plane, characterized in that the support elements are separate and spaced apart from one another in an axial direction, and in that the first and the second support element are each formed as a support ring, wherein the support rings are axially fixed to a common outer plate carrier connecting element . - a casing , - a first and a second friction clutch which are arranged in the casing so as to be offset in an axial direction and which form a clutch device with a first axial side and a second axial side , and - a first actuator for actuating the first friction clutch and a second actuator for actuating the second friction clutch , and - an axial support device which is arranged in an axial direction between the first and the second friction clutch , wherein the axial support device has a first support element for the first friction clutch and a second support element for the second friction clutch , wherein the double clutch system is of substantially symmetrical form with respect to a radial plane,
A method for preventing agglomeration in a mixture of xylitol and calcium aspartate, comprising adjusting and measuring water activities of xylitol particles and calcium aspartate particles; and mixing calcium aspartate particles with a water activity in a range of 0.50-0.52 and xylitol particles with a water activity in a range of 0.48-0.56; or adding maltitol particles with a weight ratio of 5%-20% to the xylitol particles to a mixture of the calcium aspartate particles and the xylitol particles, wherein particle sizes of the xylitol particles are in a range of 2.000 mm (10 mesh) to 0.177 mm (80 mesh).
A method performed by a terminal in a communication system, the method comprising: transmitting, to a base station, a random access preamble on a physical random access channel, PRACH; receiving, from the base station, a random access response, RAR, for the transmission of the PRACH; transmitting, to the base station, a physical uplink control channel, PUCCH, with a hybrid automatic repeat request, HARQ,-acknowledgement, ACK, information for the RAR; wherein a slot for a transmission of the PUCCH is identified based on a sum of a first parameter related to a slot for reception of the RAR, the first parameter being a slot index n where an end position of a physical downlink shared channel, PDSCH, associated with the RAR is located, a second parameter determined based on a timing indicator field included in the RAR, and a third parameter determined based on a subcarrier spacing, SCS, of the PUCCH, and. wherein: the third parameter is 2 in case that the SCS of the PUCCH is 15kHz, the third parameter is 3 in case that the SCS of the PUCCH is 30kHz, the third parameter is 4 in case that the SCS of the PUCCH is 60kHz, and the third parameter is 6 in case that the SCS of the PUCCH is 120kHz. transmitting, to a base station, a random access preamble on a physical random access channel, PRACH; receiving, from the base station, a random access response, RAR, for the transmission of the PRACH; transmitting, to the base station, a physical uplink control channel, PUCCH, with a hybrid automatic repeat request, HARQ,-acknowledgement, ACK, information for the RAR; wherein a slot for a transmission of the PUCCH is identified based on a sum of a first parameter related to a slot for reception of the RAR, the first parameter being a slot index n where an end position of a physical downlink shared channel, PDSCH, associated with the RAR is located, a second parameter determined based on a timing indicator field included in the RAR, and a third parameter determined based on a subcarrier spacing, SCS, of the PUCCH, and. wherein: the third parameter is 2 in case that the SCS of the PUCCH is 15kHz, the third parameter is 3 in case that the SCS of the PUCCH is 30kHz, the third parameter is 4 in case that the SCS of the PUCCH is 60kHz, and the third parameter is 6 in case that the SCS of the PUCCH is 120kHz. the third parameter is 2 in case that the SCS of the PUCCH is 15kHz, the third parameter is 3 in case that the SCS of the PUCCH is 30kHz, the third parameter is 4 in case that the SCS of the PUCCH is 60kHz, and the third parameter is 6 in case that the SCS of the PUCCH is 120kHz.
A polyester resin composition comprising: 97.0% by mass or more and 99.9% by mass or less of a polyester resin (A); and 0.1% by mass or more and 3.0% by mass or less of a polycarbodiimide (B), wherein a dicarboxylic acid constituent unit in the polyester resin (A) comprises a terephthalic acid unit and/or a 2,6-naphthalenedicarboxylic acid unit, 5% by mol or more and 90% by mol or less of a diol constituent unit in the polyester resin (A) is a unit derived from a diol having a cyclic acetal skeleton represented by the following formula or formula , and 0% by mol or more and 90% by mol or less of the diol constituent unit is a unit derived from an alicyclic diol, and the polycarbodiimide (B) has two or more carbodiimide groups in one molecule thereof: wherein R 1 and R 2 each independently represent an aliphatic group having 1 to 10 carbon atoms, an alicyclic group having 3 or more and 10 or less carbon atoms, or an aromatic group having 6 or more and 10 or less carbon atoms, and wherein R 1 is as defined above; and R 3 represents an aliphatic group having 1 or more and 10 or less carbon atoms, an alicyclic group having 3 or more and 10 or less carbon atoms, or an aromatic group having 6 or more and 10 or less carbon atoms. wherein a dicarboxylic acid constituent unit in the polyester resin (A) comprises a terephthalic acid unit and/or a 2,6-naphthalenedicarboxylic acid unit, 5% by mol or more and 90% by mol or less of a diol constituent unit in the polyester resin (A) is a unit derived from a diol having a cyclic acetal skeleton represented by the following formula or formula , and 0% by mol or more and 90% by mol or less of the diol constituent unit is a unit derived from an alicyclic diol, and the polycarbodiimide (B) has two or more carbodiimide groups in one molecule thereof: wherein R 1 and R 2 each independently represent an aliphatic group having 1 to 10 carbon atoms, an alicyclic group having 3 or more and 10 or less carbon atoms, or an aromatic group having 6 or more and 10 or less carbon atoms, and wherein R 1 is as defined above; and R 3 represents an aliphatic group having 1 or more and 10 or less carbon atoms, an alicyclic group having 3 or more and 10 or less carbon atoms, or an aromatic group having 6 or more and 10 or less carbon atoms.
A method for improving the accuracy of a vehicle navigation module , the method comprising: the vehicle navigation module including a MEMS gyroscope that includes an internal temperature sensor and a navigation filter , the navigation filter : (a) when a reference rotation rate is available, estimating a gyroscope bias by comparing rotation rate as measured by the gyroscope to said reference rotation rate and recording the bias versus gyroscope temperature data; (b) averaging the bias versus gyroscope temperature data obtained in step (a) over many power cycles of said MEMS gyroscope; (c) storing the average gyroscope bias versus temperature data; (d) computing a rate of change of gyroscope bias versus temperature from the average gyroscope bias versus temperature data and storing the computed rate of change of gyroscope bias versus temperature; and (e) during a driving trip, if temperature changes occur during periods when no reference rotation rate is available, estimating a gyroscope bias, via linear extrapolation from a known bias value, the linear extrapolation taking into account a temperature change from the current gyroscope temperature and the temperature corresponding to the known bias value (T 0 ) and rate of change of gyroscope bias versus temperature obtained in step (d). (a) when a reference rotation rate is available, estimating a gyroscope bias by comparing rotation rate as measured by the gyroscope to said reference rotation rate and recording the bias versus gyroscope temperature data; (b) averaging the bias versus gyroscope temperature data obtained in step (a) over many power cycles of said MEMS gyroscope; (c) storing the average gyroscope bias versus temperature data; (d) computing a rate of change of gyroscope bias versus temperature from the average gyroscope bias versus temperature data and storing the computed rate of change of gyroscope bias versus temperature; and (e) during a driving trip, if temperature changes occur during periods when no reference rotation rate is available, estimating a gyroscope bias, via linear extrapolation from a known bias value, the linear extrapolation taking into account a temperature change from the current gyroscope temperature and the temperature corresponding to the known bias value (T 0 ) and rate of change of gyroscope bias versus temperature obtained in step (d).
A process to perform an endothermic steam reforming of hydrocarbons to produce synthesis gas, said process comprising the steps of: a) providing at least one fluidized bed reactor comprising at least two electrodes and a bed comprising particles; b) putting the particles of the bed in a fluidized state by passing upwardly through the said bed a fluid stream, to obtain a fluidized bed; c) heating the fluidized bed to a temperature ranging from 500°C to 1200°C to conduct the endothermic steam reforming reaction of a hydrocarbon feedstock in presence of steam; d) obtaining a reactor effluent containing hydrogen, carbon monoxide, carbon dioxide and unconverted hydrocarbons and steam; the process is characterized in that the particles of the bed comprise electrically conductive particles and particles of a catalytic composition, wherein at least 10 wt.% of the particles based on the total weight of the particles of the bed are electrically conductive particles, have a resistivity ranging from 0.001 Ohm.cm to 500 Ohm.cm at 800°C; in that the electrically conductive particles are or comprise one or more particles selected from one or more non-metallic resistors, one or more metallic carbides, one or more transition metal nitrides, one or more metallic phosphides, one or more superionic conductors, one or more phosphate electrolytes, one or more mixed oxides being doped with one or more lower-valent cations, one or more mixed sulphides being doped with one or more lower-valent cations, and any mixture thereof; and in that the step (c) of heating the fluidized bed is performed by passing an electric current through the fluidized bed. a) providing at least one fluidized bed reactor comprising at least two electrodes and a bed comprising particles; b) putting the particles of the bed in a fluidized state by passing upwardly through the said bed a fluid stream, to obtain a fluidized bed; c) heating the fluidized bed to a temperature ranging from 500°C to 1200°C to conduct the endothermic steam reforming reaction of a hydrocarbon feedstock in presence of steam; d) obtaining a reactor effluent containing hydrogen, carbon monoxide, carbon dioxide and unconverted hydrocarbons and steam;
A method of connecting a User Equipment, UE , with a radio access network, RAN, in a telecommunication network, wherein said RAN comprises a plurality of Baseband Units, BBU's , wherein said UE comprises two multi layered protocol stacks, each of which comprising a Radio Link Controller, RLC, layer, that can be used for connections with BBU's , wherein the connections are based on the same radio access technology, and wherein said UE is connected to a first BBU using a first of said two protocol stacks for communication with said first BBU, said method comprising the steps of: - receiving, by a second BBU, from a network node in said telecommunication network, a Stack Selector parameter, wherein said Stack Selector parameter indicates which of said two protocol stacks are to be used by said UE for said communication with said second BBU; - transmitting, by said second BBU, to said UE a downlink grant message, wherein said downlink grant message comprises said Stack Selector parameter. - receiving, by a second BBU, from a network node in said telecommunication network, a Stack Selector parameter, wherein said Stack Selector parameter indicates which of said two protocol stacks are to be used by said UE for said communication with said second BBU; - transmitting, by said second BBU, to said UE a downlink grant message, wherein said downlink grant message comprises said Stack Selector parameter.
A system having a secured access comprising: one or more vehicle buses ; one or more electronic control units, ECUs, on a vehicle connected to the one or more vehicle buses; a security module connected to the one or more vehicle buses; a vehicle access port connected to the security module; and an accessing entity connected to the vehicle access port having a certificate and configured to send the certificate to the security module; and wherein the security module and the accessing entity are adapted to encrypt and decrypt vehicle bus messages injected or extracted by the accessing entity, using a key shared between only the security module and the accessing entity; wherein the security module is configured to derive the shared key from a random code generated and encrypted into a message, using a public key extracted from the certificate and the accessing entity is configured to decrypt the message and obtain the random code using a private key corresponding to the public key. one or more vehicle buses ; one or more electronic control units, ECUs, on a vehicle connected to the one or more vehicle buses; a security module connected to the one or more vehicle buses; a vehicle access port connected to the security module; and an accessing entity connected to the vehicle access port having a certificate and configured to send the certificate to the security module; and wherein the security module and the accessing entity are adapted to encrypt and decrypt vehicle bus messages injected or extracted by the accessing entity, using a key shared between only the security module and the accessing entity; wherein the security module is configured to derive the shared key from a random code generated and encrypted into a message, using a public key extracted from the certificate and the accessing entity is configured to decrypt the message and obtain the random code using a private key corresponding to the public key.
A system for mapping a neural area of a human subject involved in speech processing, said system comprising: - a plurality of recording electrodes configured to be placed on a surface of a cortex of the human subject; - a recording device configured to record brain activity during a presenting of a plurality of auditory stimuli wherein some of the plurality of stimuli are speech sounds and others of the plurality of auditory stimuli are non-speech sounds and wherein the human subject does not speak during the presenting and the recording; - a processor configured to identify one or more brain areas wherein brain activity of the one or more brain areas changes more after presentation of speech sounds than it does after presentation of non-speech sounds. - a plurality of recording electrodes configured to be placed on a surface of a cortex of the human subject; - a recording device configured to record brain activity during a presenting of a plurality of auditory stimuli wherein some of the plurality of stimuli are speech sounds and others of the plurality of auditory stimuli are non-speech sounds and wherein the human subject does not speak during the presenting and the recording; - a processor configured to identify one or more brain areas wherein brain activity of the one or more brain areas changes more after presentation of speech sounds than it does after presentation of non-speech sounds.