mhurhangee/ep-ind-claims huggingface dataset:
A toy comprising: a processor; a memory for storing at least one group of data, each said at least one group representing a particular theme and comprising a plurality of expressive responses; an output for said expressive responses; and means for connection to a computer to download each said group of data, the group of data for download being user-selectable to enable user selection of a particular theme; the toy being adapted to exchange such responses with another such toy, each said group of data comprising both responses and counter-responses, so that the toy may converse with another such toy on the particular theme; wherein a new such group of data can be loaded into said memory so that the toy can converse on a different user-selectable theme; whereby the toy can converse in a plurality of different user-selectable themes, one theme at a time. a processor; a memory for storing at least one group of data, each said at least one group representing a particular theme and comprising a plurality of expressive responses; an output for said expressive responses; and means for connection to a computer to download each said group of data, the group of data for download being user-selectable to enable user selection of a particular theme; the toy being adapted to exchange such responses with another such toy, each said group of data comprising both responses and counter-responses, so that the toy may converse with another such toy on the particular theme; wherein a new such group of data can be loaded into said memory so that the toy can converse on a different user-selectable theme; whereby the toy can converse in a plurality of different user-selectable themes, one theme at a time.
Chronograph mechanism comprising a drive wheel, a coupling lever pivoted concentrically with the drive wheel and the free end of which bears a beak, this coupling lever bearing an intermediate wheel constantly in engagement with the drive wheel and intended to be in or out of engagement with the toothing of a chronograph wheel depending on the position of the coupling lever and a pivotably mounted blocking lever comprising a blocking shoe cooperating with the toothing of the chronograph wheel, the blocking lever and the coupling lever being subject to return springs (16, 27), characterised in that the coupling lever comprises a control member against which the blocking lever bears under the action of the return spring of the blocking lever and in that the blocking lever is pivoted by one end on the coupling lever.
A method of checking a tunnel monitoring system, wherein the tunnel monitoring system comprises a plurality of sensor units (12a - 12c) which are configured to monitor at least one air quality parameter, wherein each sensor unit (12a - 12c) has at least one sensor (14a - 14c) and an evaluation unit (16a - 16c) which is connected to the sensor (14a - 14c) and which generates a measurement signal on the basis of a raw signal generated by the sensor (14a - 14c) and on the basis of at least one internal evaluation parameter, which measurement signal characterizes the air quality parameter; and wherein a first sensor unit is operated in a checking mode of operation such that a reference air quality detectable by the sensor of the first sensor unit is produced or simulated for a specific air quality parameter and such that the sensor of the first sensor unit generates a corresponding reference raw signal for the reference air quality, characterized in that, in the checking mode of operation, a checking measurement signal is generated for all the sensor units (12a - 12c) to be checked on the basis of the reference raw signal generated by the sensor of the first sensor unit and on the basis of the at least one internal evaluation parameter of that evaluation unit (14a - 14c) which is associated with the respective sensor unit (12a - 12c) to be checked; and in that the operability of the sensor unit (12a - 12c) is checked on the basis of a comparison between the checking measurement signal and a reference parameter which characterizes the reference air quality, with at least one of the sensor units (12a - 12c) to be checked being different from the first sensor unit.
A method for driving a motor of an air conditioner comprising: driving the motor in response to a predetermined speed command (v*); detecting, by an output current detector, an output current (io) flowing between the motor and an inverter for converting DC power to AC power; estimating a rotor position of the motor based on the output current (io) detected by the output current detector; sequentially detecting first and second mechanical angles based on the estimated rotor position in response to the speed command (v*) or a reference speed being spaced apart from the speed command (v*) by a predetermined range; if the first and second mechanical angles are not within a normal range, correcting at least one of the first or second mechanical angles; calculating a maximum speed mechanical angle (θ M) corresponding to a maximum speed ripple of the motor based on at least one of the corrected first or second mechanical angles; and compensating for load torque of the motor on the basis of the calculated maximum speed mechanical angle (θM). driving the motor in response to a predetermined speed command (v*); detecting, by an output current detector, an output current (io) flowing between the motor and an inverter for converting DC power to AC power; estimating a rotor position of the motor based on the output current (io) detected by the output current detector; sequentially detecting first and second mechanical angles based on the estimated rotor position in response to the speed command (v*) or a reference speed being spaced apart from the speed command (v*) by a predetermined range; if the first and second mechanical angles are not within a normal range, correcting at least one of the first or second mechanical angles; calculating a maximum speed mechanical angle (θ M) corresponding to a maximum speed ripple of the motor based on at least one of the corrected first or second mechanical angles; and compensating for load torque of the motor on the basis of the calculated maximum speed mechanical angle (θM).
A computer implemented method, comprising: determining a first media access control, MAC, address of a first mobile device that has registered with a streaming media device and a second MAC address of a second mobile device that has registered with the streaming media device; transmitting, by the streaming media device, a discovery signal comprising a first address resolution protocol, ARP, signal indicating the first MAC address over a network to one or more devices connected to the network; determining that no mobile device responds to the first ARP signal; transmitting a second discovery signal comprising a second ARP signal indicating the second MAC address; receiving, by the streaming media device, a response to the second discovery signal from the second mobile device; determining, based on the response, that the second mobile device is within a threshold vicinity of the streaming media device; determining one or more user settings corresponding to the second mobile device; and configuring the streaming media device based on the determined one or more user settings. determining a first media access control, MAC, address of a first mobile device that has registered with a streaming media device and a second MAC address of a second mobile device that has registered with the streaming media device; transmitting, by the streaming media device, a discovery signal comprising a first address resolution protocol, ARP, signal indicating the first MAC address over a network to one or more devices connected to the network; determining that no mobile device responds to the first ARP signal; transmitting a second discovery signal comprising a second ARP signal indicating the second MAC address; receiving, by the streaming media device, a response to the second discovery signal from the second mobile device; determining, based on the response, that the second mobile device is within a threshold vicinity of the streaming media device; determining one or more user settings corresponding to the second mobile device; and configuring the streaming media device based on the determined one or more user settings.
Method of free solution capillary electrophoresis at an alkaline pH for analysing biological samples comprising protein constituents, characterized in that the constituents are albumin and the α 1 -, α 2 -, β- or (β 1 - and β 2 -) and γ- globulin fractions and in that it comprises at least one step in which: the sample is introduced into a capillary tube containing an analysis buffer with a pH in the range 9 to 11, said analysis buffer further comprising at least one additive which is capable of hydrophobic interaction with one or more protein constituents and which is capable of providing said protein constituent or constituents with one or more negative charges and of reducing the electrophoretic mobility of the albumin compared with that of the other proteins, said additive comprising an anionic pole when the pH is greater than 9 and a hydrophobic portion. the sample is introduced into a capillary tube containing an analysis buffer with a pH in the range 9 to 11, said analysis buffer further comprising at least one additive which is capable of hydrophobic interaction with one or more protein constituents and which is capable of providing said protein constituent or constituents with one or more negative charges and of reducing the electrophoretic mobility of the albumin compared with that of the other proteins, said additive comprising an anionic pole when the pH is greater than 9 and a hydrophobic portion.
A method for user authentication for accessing from a client to a server over a packet based network using a one-time password and a username, wherein the client comprises a first secret (40, 45), and the server comprises a database for storing a second secret (41, 46) provided in association with the first secret by the client, wherein the method comprises the steps of: a) transmitting a challenge from the server to the client, wherein the challenge is encoded by the server and comprises a random data; b) computing the one-time password by the client using the second secret (41, 46) and the random data decoded from the challenge; c) submitting the one-time password and the username on the client to access the server; d) validating the one time password received from the client with the one-time password computed by the server using the random data and the server secret stored in the database, characterised in that: the second secret (41, 46) is generated by the client using the first secret (40, 45) and a server identification, wherein the server identification is the internet protocol address or the domain name of the server, and wherein the second secret (41, 46) used for computing the one-time password in step b) is generated by the client using the first secret (40, 45) and the server identification. secret stored in the database.
Waterproof, breathable shoe, comprising: an upper assembly with an upper portion including a breathable outer material and with a bottom portion, said upper assembly comprising a waterproof, breathable functional layer arrangement (18; 13, 21) extending over said upper portion and said bottom portion, a ventilating sole element having a structure or material allowing for air flow through it, said ventilating sole element being attached to said upper assembly, wherein a plurality of lateral passages extend from said structure or material through a side wall of said ventilating sole element, said plurality of lateral passages allowing for communication of air between said structure or material of said ventilating sole element and an outside of said ventilating sole element, wherein said plurality of lateral passages are arranged below the bottom portion of the upper assembly, with a water vapour transfer out of the shoe being effected via the bottom portion of the upper assembly, the structure or material allowing for air flow through it and said plurality of lateral passages, with water vapour discharged from an underside of the upper assembly being received at an upper side of the ventilating sole element, and with air flow within the ventilating sole element facilitating transport of the water vapour to the outside of the waterproof, breathable shoe via said plurality of lateral passages. an upper assembly with an upper portion including a breathable outer material and with a bottom portion, said upper assembly comprising a waterproof, breathable functional layer arrangement (18; 13, 21) extending over said upper portion and said bottom portion, a ventilating sole element having a structure or material allowing for air flow through it, said ventilating sole element being attached to said upper assembly, wherein a plurality of lateral passages extend from said structure or material through a side wall of said ventilating sole element, said plurality of lateral passages allowing for communication of air between said structure or material of said ventilating sole element and an outside of said ventilating sole element, wherein said plurality of lateral passages are arranged below the bottom portion of the upper assembly, with a water vapour transfer out of the shoe being effected via the bottom portion of the upper assembly, the structure or material allowing for air flow through it and said plurality of lateral passages, with water vapour discharged from an underside of the upper assembly being received at an upper side of the ventilating sole element, and with air flow within the ventilating sole element facilitating transport of the water vapour to the outside of the waterproof, breathable shoe via said plurality of lateral passages.
A method carried out by a terminal for receiving a downlink control channel, applied in the terminal, the method comprising: determining, from a plurality of receiving manners, a target receiving manner for receiving the downlink control channel according to target association information associated with the downlink control channel; wherein the target association information associated with the downlink control channel is a scrambling sequence that scrambles target information, wherein the target information is information corresponding to a channel or an information block received by the terminal before receiving the downlink control channel, wherein when the terminal attempts to demodulate the target information according to a related technology by using a plurality of pre-stored scrambling sequences, the scrambling sequence that can successfully demodulate the target information is the target association information; and receiving (102,303,504) the downlink control channel transmitted by a base station according to the target receiving manner; wherein the target receiving manner is configured to indicate, by possible location information, a possible search space of the downlink control channel. determining, from a plurality of receiving manners, a target receiving manner for receiving the downlink control channel according to target association information associated with the downlink control channel; wherein the target association information associated with the downlink control channel is a scrambling sequence that scrambles target information, wherein the target information is information corresponding to a channel or an information block received by the terminal before receiving the downlink control channel, wherein when the terminal attempts to demodulate the target information according to a related technology by using a plurality of pre-stored scrambling sequences, the scrambling sequence that can successfully demodulate the target information is the target association information; and receiving (102,303,504) the downlink control channel transmitted by a base station according to the target receiving manner; wherein the target receiving manner is configured to indicate, by possible location information, a possible search space of the downlink control channel.
A reinforcement of a rear pillar of a body of a motor vehicle including an upper end and a lower end, characterized in that the reinforcement includes a central portion and a quarter panel wall defining, together with the central portion, an angle and an inner space, the quarter panel wall including an upper quarter panel wall and a lower quarter panel wall situated at the lower end, the lower quarter panel wall being offset with respect to the upper quarter panel wall towards an outer space by opposition with the inner space, the central portion including an upper portion and a lower portion situated at the lower end, the lower portion being offset with respect to the upper portion towards the outer space, the lower portion and the lower quarter panel wall defining together a receiving space of a rail case end of a sliding lateral door.
A method for supporting direct wireless communication between a first user equipment, UE, and a second UE, the method comprising at the first UE: identifying a wireless channel allocated for a data transmission to be transmitted to the second UE using a first radio access technology, RAT, during a first time period; transmitting a message using a second RAT indicating that the data transmission is to occur during the first time period, the second RAT being a wireless local area network, WLAN, and being different from the first RAT, the message being transmitted during a second time period designated for second RAT transmissions by one or more other user equipments, UEs, wherein transmitting the message comprises one of: transmitting the message across a first band of frequencies that overlaps with and is wider than a second band of frequencies used for the data transmission; transmitting multiple messages simultaneously during the second time period using the second RAT across respective first bands of frequencies that overlap with and are collectively wider than a second band of frequencies for the data transmission; and transmitting the data transmission to the second UE over the wireless channel during the first time period using the first RAT. identifying a wireless channel allocated for a data transmission to be transmitted to the second UE using a first radio access technology, RAT, during a first time period; transmitting a message using a second RAT indicating that the data transmission is to occur during the first time period, the second RAT being a wireless local area network, WLAN, and being different from the first RAT, the message being transmitted during a second time period designated for second RAT transmissions by one or more other user equipments, UEs, wherein transmitting the message comprises one of: transmitting the message across a first band of frequencies that overlaps with and is wider than a second band of frequencies used for the data transmission; transmitting multiple messages simultaneously during the second time period using the second RAT across respective first bands of frequencies that overlap with and are collectively wider than a second band of frequencies for the data transmission; and transmitting the message across a first band of frequencies that overlaps with and is wider than a second band of frequencies used for the data transmission; transmitting multiple messages simultaneously during the second time period using the second RAT across respective first bands of frequencies that overlap with and are collectively wider than a second band of frequencies for the data transmission; and transmitting the data transmission to the second UE over the wireless channel during the first time period using the first RAT.
An image processing method comprising: generating an image based on viewpoint information of a user; rendering the image based on information about at least one of surroundings and an object present in front of the user, wherein the image is rendered so that a depth of a 3D image viewed by the user is greater than a virtual image distance of the 3D image between a position of an eye of the user and a location of a virtual representation of the image; and outputting the rendered image using an optical element. generating an image based on viewpoint information of a user; rendering the image based on information about at least one of surroundings and an object present in front of the user, wherein the image is rendered so that a depth of a 3D image viewed by the user is greater than a virtual image distance of the 3D image between a position of an eye of the user and a location of a virtual representation of the image; and outputting the rendered image using an optical element.
An oil-in-water cosmetic comprising: (a) oil-droplet particles consisting of an oil component to be emulsified; (b) vesicle particles for stabilizing the oil-droplet particles; and (c) an aqueous phase containing water and ethanol, wherein the vesicle particles are localized on surfaces of the oil-droplet particles and the vesicle particles are formed of an amphiphilic substance which spontaneously forms vesicle particles, wherein the amphiphilic substance is a polyoxyethylene hydrogenated castor oil derivative represented by formula: wherein E=L+M+N+X+Y+Z, and said E which represents the average addition mole number of ethylene oxide is 10 to 20, and wherein the ethanol contained therein is 5 to 50% by mass with respect to total amount of cosmetic. (a) oil-droplet particles consisting of an oil component to be emulsified; (b) vesicle particles for stabilizing the oil-droplet particles; and (c) an aqueous phase containing water and ethanol,
A gel, characterized in that the gel is formed from copolymerization of more than one hydrophobic monomer, a nonionic monomer and an olefinic acid salt monomer, the gel being prepared by the steps of: firstly adding deionized water, adding the hydrophobic monomers and the nonionic monomer based on a feed ratio, adding the olefinic acid salt monomer, stirring evenly to form a mixture at a concentration of 10% to 40% (10-40 g/100 mL), and bubbling nitrogen gas to remove oxygen, then controlling the mixture to a polymerization temperature, adding an initiator to proceed polymerization reaction, after the polymerization for 6-12 h, taking out the colloid for granulation, following by adding a hydrolytic agent selected from sodium hydroxide and sodium carbonate, for hydrolysis, and then drying, pulverizing and packaging, to obtain a gel sample; wherein the hydrophobic monomers are selected from alkyl dimethyl allyl ammonium chloride and N-alkyl acrylamide; the nonionic monomer is one or more of acrylamide, methacrylamide; and the olefinic acid salt monomer is one or more of sodium methacrylate, sodium vinyl sulfonate and sodium acrylate; wherein the ratio of the hydrophobic monomers, the nonionic monomer and the olefinic acid salt monomer is: 1-5 parts of the hydrophobic monomers, 70-90 parts of the nonionic monomer, and 5-20 parts of the olefinic acid salt monomer by amount of substance; the time for bubbling nitrogen gas is 40-120 min; the polymerization temperature is 5-50°C; the initiator is a redox initiator, wherein the oxidizing agent is one or more of potassium persulfate, ammonium persulfate and sodium persulfate; and the reducing agent is one or more of sodium sulfite, sodium bisulfite, urea and triethanolamine; the initiator is added in an amount of 0.05% to 2% of the total mass of the hydrophobic monomers, the nonionic monomer and the olefinic acid salt monomer; the hydrolytic agent selected from sodium hydroxide and sodium carbonate, is added in an amount of 5% to 15% of the total mass of the hydrophobic monomers, the nonionic monomer and the olefinic acid salt monomer; the hydrolysis temperature is 80-110 °C, and the hydrolysis time is 2-4 h; the drying temperature is 80-120°C, and the drying time is 1-4 h.