mhurhangee/ep-ind-claims huggingface dataset:
A security-enhanced cloud system using face or fingerprint information comprising: a control system adapted to perform user authentication using at least one of fingerprint recognition, face recognition and biometric recognition and creating a wake-on command after completion of the user authentication; a mobile terminal adapted to create at least one of fingerprint recognition information, face recognition information and biometric recognition information by recognizing a fingerprint, a face or a body of a user, and, if an authentication request is received from the control system after connecting to the control system, completing the user authentication by transmitting the created fingerprint recognition information and face recognition information or biometric recognition information to the control system in response to the authentication request; a private virtualized cloud server adapted to allow use of first class document data of a high security level and second class document data of a low security level by permitting only connection of a computer of the user after being activated in response to the wake-on command transmitted from the control system, and a connection between the private virtualized cloud server and the computer automatically is shut down when a request is received from the user of the computer or two or more users are connected; and the computer adapted to use the data in the private virtualized cloud server after acquiring a right to connect to the private virtualized cloud server by permission of the private virtualized cloud server. a control system adapted to perform user authentication using at least one of fingerprint recognition, face recognition and biometric recognition and creating a wake-on command after completion of the user authentication; a mobile terminal adapted to create at least one of fingerprint recognition information, face recognition information and biometric recognition information by recognizing a fingerprint, a face or a body of a user, and, if an authentication request is received from the control system after connecting to the control system, completing the user authentication by transmitting the created fingerprint recognition information and face recognition information or biometric recognition information to the control system in response to the authentication request; a private virtualized cloud server adapted to allow use of first class document data of a high security level and second class document data of a low security level by permitting only connection of a computer of the user after being activated in response to the wake-on command transmitted from the control system, and a connection between the private virtualized cloud server and the computer automatically is shut down when a request is received from the user of the computer or two or more users are connected; and the computer adapted to use the data in the private virtualized cloud server after acquiring a right to connect to the private virtualized cloud server by permission of the private virtualized cloud server.
A microfluidic device (100, 200, 300b, 300d, 300c) comprising a microfluidic chamber (20, 20a, 20b), having a body introduced therein and an inlet, and arranged to receive a liquid therein; wherein, in use, the microfluidic device (100, 200, 300b, 300d, 300c) is arranged to control translation through the liquid of the body introduced therein, wherein the translation of the body is due to a potential field acting on the body; wherein the potential field is a gravitational potential field; wherein the microfluidic chamber (20, 20a, 20b) comprises a wall portion (42, 44) arranged to, in part, control translation through the liquid of the body; whereby the controlled translation of the body mixes the liquid; characterised by: wherein the wall portion (42, 44) is arranged boustrophedonically. wherein, in use, the microfluidic device (100, 200, 300b, 300d, 300c) is arranged to control translation through the liquid of the body introduced therein, wherein the translation of the body is due to a potential field acting on the body; wherein the potential field is a gravitational potential field; wherein the microfluidic chamber (20, 20a, 20b) comprises a wall portion (42, 44) arranged to, in part, control translation through the liquid of the body; whereby the controlled translation of the body mixes the liquid; characterised by: wherein the wall portion (42, 44) is arranged boustrophedonically.
A method for producing a resin lens, comprising steps of: A) mixing a polyisocyanate, a modified isocyanate, a catalyst and a release agent, and performing vacuum defoaming at 0~30°C for 10~90min to obtain a material a; B) mixing the material a with a sulfur-containing compound, and performing vacuum defoaming at 15~20°C for 20~120min to obtain mixed monomers; and C) completing casting of the mixed monomers, and then curing to obtain the resin lens; wherein the modified isocyanate is selected from a modified isocyanate b 1; the modified isocyanate b 1 is prepared according to the following method: A1) vacuumizing a compound having a structure represented by formula at 70~90°C and 0.1~0.3MPa for 0.5~1h to obtain a material c 1, HO-X-OH; in formula, X is one selected from a group having a structure represented by formula and - n -, in formula, R is one selected from an alkyl group with 1~3 carbon atoms; n ≤ 6; B1) mixing hexamethylene diisocyanate with N,N-diethylethanamine to obtain a mixed solution c 2; C1) adding the material c 1 to the mixed solution c 2 to react at -10~10°C for 2~4h, and then heating the resultant to 70~90°C to obtain the modified isocyanate b 1; there is no order restriction for step A1) and step B1) in the present application. A) mixing a polyisocyanate, a modified isocyanate, a catalyst and a release agent, and performing vacuum defoaming at 0~30°C for 10~90min to obtain a material a; B) mixing the material a with a sulfur-containing compound, and performing vacuum defoaming at 15~20°C for 20~120min to obtain mixed monomers; and C) completing casting of the mixed monomers, and then curing to obtain the resin lens; wherein the modified isocyanate is selected from a modified isocyanate b 1; the modified isocyanate b 1 is prepared according to the following method: A1) vacuumizing a compound having a structure represented by formula at 70~90°C and 0.1~0.3MPa for 0.5~1h to obtain a material c 1, HO-X-OH; in formula, X is one selected from a group having a structure represented by formula and - n -, in formula, R is one selected from an alkyl group with 1~3 carbon atoms; n ≤ 6; B1) mixing hexamethylene diisocyanate with N,N-diethylethanamine to obtain a mixed solution c 2; C1) adding the material c 1 to the mixed solution c 2 to react at -10~10°C for 2~4h, and then heating the resultant to 70~90°C to obtain the modified isocyanate b 1; A1) vacuumizing a compound having a structure represented by formula at 70~90°C and 0.1~0.3MPa for 0.5~1h to obtain a material c 1, HO-X-OH; in formula, X is one selected from a group having a structure represented by formula and - n -, in formula, R is one selected from an alkyl group with 1~3 carbon atoms; n ≤ 6; B1) mixing hexamethylene diisocyanate with N,N-diethylethanamine to obtain a mixed solution c 2; C1) adding the material c 1 to the mixed solution c 2 to react at -10~10°C for 2~4h, and then heating the resultant to 70~90°C to obtain the modified isocyanate b 1; there is no order restriction for step A1) and step B1) in the present application.
Luminaire with an LED module and an electronic ballast, ECG, which is formed in a luminaire housing of the luminaire separately from the LED module and provides a supply current for the LED module, wherein a microcontroller in the ECG and a memory module in the LED module are provided for storing parameterization data, and the memory module is set up for near-field communication, NFC, for changing the parameterization data, wherein the memory module in the LED module is connected to the microcontroller in the ECG for direct or indirect data exchange and the transmission range of the NFC extends beyond the spatial extent of the LED module, characterized in that the luminaire has mechanical fastening means which hold the LED module replaceably in the luminaire housing of the luminaire, wherein the LED module is designed as a closed module which cannot be opened in a non-destructive manner.
A downhole pressure operated apparatus, comprising: a piston member mounted within a piston bore and being reconfigurable from a lock configuration to an unlock configuration in response to a pressure sequence applied within the piston bore, wherein the piston member comprises a lock profile; and a lock member arranged in a cavity which opens into the piston bore, wherein when the piston member is in its lock configuration the lock member is supported by the piston member such that the lock member partially extends into the piston bore and engages the lock profile of the piston member to restrict movement of the piston member in a first direction towards its unlock configuration, wherein in response to a first pressure event of the pressure sequence the piston member is moveable in a second direction which is opposite the first direction to desupport the lock member and permit said lock member to be wholly received into the piston bore and allow the piston member to move in the first direction towards its unlock configuration in response to a subsequent second pressure event of the pressure sequence. a piston member mounted within a piston bore and being reconfigurable from a lock configuration to an unlock configuration in response to a pressure sequence applied within the piston bore, wherein the piston member comprises a lock profile; and a lock member arranged in a cavity which opens into the piston bore, wherein when the piston member is in its lock configuration the lock member is supported by the piston member such that the lock member partially extends into the piston bore and engages the lock profile of the piston member to restrict movement of the piston member in a first direction towards its unlock configuration, wherein in response to a first pressure event of the pressure sequence the piston member is moveable in a second direction which is opposite the first direction to desupport the lock member and permit said lock member to be wholly received into the piston bore and allow the piston member to move in the first direction towards its unlock configuration in response to a subsequent second pressure event of the pressure sequence.
Electric machine having a stator which forms poles (19, 20, 21, 22) and has at least one electric stator winding for generating an electromagnetic control flux and at least one permanent magnet (7, 7', 7", 7"', 8, 8', 8", 8"') for generating a permanent magnetic flux, and having a reluctance rotor which is mounted radially magnetically with respect to the stator, the electric machine (1, 15, 17, 25, 26) having electromagnetic and permanent-magnetic circuits (6, 9) which are superimposed in dependence on the rotor angle for the formation of torque and for the formation of radial load-bearing force (F1, F2) for the magnetic mounting of the reluctance rotor at least in subregions of the air gap, characterised in that, when the magnetic circuits (6, 9) are viewed separately, at least at a rotor angle a substantial part of the electromagnetic control flux is located within a permanent-magnetic pole formation having the same polarity on a stator segment (11, 12, 13 and 14) of the stator, the permanent magnets (7, 8, 7', 8') magnetically segmenting the stator into stator segments (11, 12, 13 and 14) and the permanent magnets (7, 8, 7', 8') adjacent to a respective stator segment (11, 12, 13 and 14) are arranged with the same polarity to this stator segment (11, 12, 13 and 14), to generate the permanent magnet flux in this stator segment (11, 12, 13 and 14), closes via the air gap and via the reluctance rotor to form an electromagnetic circuit.
A method, comprising: receiving, by a first base station, an access resume request of a terminal; and sending, by the first base station, an access rejection message to the terminal, the access rejection message including: a check value generated by a second base station based on a key of the terminal and the access rejection message, the check value for use by the terminal to determine whether to discard the access rejection message, and a waiting time indicative of a time for the terminal to send another access resume request. receiving, by a first base station, an access resume request of a terminal; and sending, by the first base station, an access rejection message to the terminal, the access rejection message including: a check value generated by a second base station based on a key of the terminal and the access rejection message, the check value for use by the terminal to determine whether to discard the access rejection message, and a waiting time indicative of a time for the terminal to send another access resume request. a check value generated by a second base station based on a key of the terminal and the access rejection message, the check value for use by the terminal to determine whether to discard the access rejection message, and a waiting time indicative of a time for the terminal to send another access resume request.
Device for machining a workpiece, comprising a rotatably drivable tool (2, 50) on a tool head, a suction device arranged on the tool head and having a hood arranged around the tool (2, 50), wherein a mouthpiece rotatable about the tool (2, 50) is arranged on the hood, via which mouthpiece a particle stream can be sucked in during machining, characterized in that an upper side of the hood is closed by a cover element held on the tool head.
A method of wireless communication at a first user equipment, UE, comprising: transmitting a first message to announce an existence of a private platooning group; receiving, in response to the first message, a second message indicating a request to join the private platooning group from a second UE; allowing or denying the second UE to join the private platooning group based on the second message; wherein the first UE is a head of the private platooning group; wherein the first message comprises a public message portion that is accessible by both non-members of the private platooning group and members of the private platooning group, and a private message portion that is accessible by a set of allowed UEs for the private platooning group; and wherein the public message portion comprises information identifying the private platooning group as a private group and at least one of: braking information for the private platooning group, or acceleration information for the private platooning group. transmitting a first message to announce an existence of a private platooning group; receiving, in response to the first message, a second message indicating a request to join the private platooning group from a second UE; allowing or denying the second UE to join the private platooning group based on the second message; wherein the first UE is a head of the private platooning group; wherein the first message comprises a public message portion that is accessible by both non-members of the private platooning group and members of the private platooning group, and a private message portion that is accessible by a set of allowed UEs for the private platooning group; and wherein the public message portion comprises information identifying the private platooning group as a private group and at least one of: braking information for the private platooning group, or acceleration information for the private platooning group.
A method for enabling a remote computing environment, comprising: employing a processor of a mobile device to perform the following acts: obtaining a list of available remote peripheral devices; choosing at least one of the available remote peripheral devices using automatic selection based on a set of rules, wherein the set of rules comprises a specified minimum combination of remote peripheral devices that should be available before activating the remote computing environment; and activating the remote computing environment that comprises the at least one chosen available remote peripheral device, wherein the remote computing environment provides a different user experience compared with a local computing environment of the mobile device. employing a processor of a mobile device to perform the following acts: obtaining a list of available remote peripheral devices; choosing at least one of the available remote peripheral devices using automatic selection based on a set of rules, wherein the set of rules comprises a specified minimum combination of remote peripheral devices that should be available before activating the remote computing environment; and activating the remote computing environment that comprises the at least one chosen available remote peripheral device, wherein the remote computing environment provides a different user experience compared with a local computing environment of the mobile device. obtaining a list of available remote peripheral devices; choosing at least one of the available remote peripheral devices using automatic selection based on a set of rules, wherein the set of rules comprises a specified minimum combination of remote peripheral devices that should be available before activating the remote computing environment; and activating the remote computing environment that comprises the at least one chosen available remote peripheral device, wherein the remote computing environment provides a different user experience compared with a local computing environment of the mobile device.
A method for transmitting a control channel from a terminal to a base station in a wireless communication system supporting carrier aggregation, the method comprising: receiving, at the terminal, cell information on a primary cell operating in a frequency division duplexing, FDD, mode and a secondary cell operating in a time division duplexing, TDD, mode; receiving, at the terminal, configuration information configuring a PUCCH format 1b with channel selection; receiving, at the terminal, downlink scheduling information for downlink data; receiving, at the terminal, the downlink data in a subframe n according to the downlink scheduling information; transmitting, at the terminal, control information corresponding to the downlink data on the primary cell based on the PUCCH format 1b with channel selection, in case that the subframe n of the secondary cell is a downlink subframe; and transmitting, at the terminal, the control information corresponding to the downlink data on the primary cell based on a PUCCH format 1a or a PUCCH format 1b, in case that the subframe n of the secondary cell is an uplink subframe. receiving, at the terminal, cell information on a primary cell operating in a frequency division duplexing, FDD, mode and a secondary cell operating in a time division duplexing, TDD, mode; receiving, at the terminal, configuration information configuring a PUCCH format 1b with channel selection; receiving, at the terminal, downlink scheduling information for downlink data; receiving, at the terminal, the downlink data in a subframe n according to the downlink scheduling information; transmitting, at the terminal, control information corresponding to the downlink data on the primary cell based on the PUCCH format 1b with channel selection, in case that the subframe n of the secondary cell is a downlink subframe; and transmitting, at the terminal, the control information corresponding to the downlink data on the primary cell based on a PUCCH format 1a or a PUCCH format 1b, in case that the subframe n of the secondary cell is an uplink subframe.
A controller of a linear motion device, the controller comprising: the linear motion device having a magnet attached to a moving body; a driving coil disposed in a vicinity of the magnet of the linear motion device, the driving coil being configured to move the magnet; a magnetic field sensor configured to detect a magnetic field generated by the magnet and configured to output a detection position signal value corresponding to a value of a detected magnetic field; a calibration operation circuit configured to obtain a detection position operation signal value from a first position signal value corresponding to a first position of the linear motion device and a second position signal value corresponding to a second position of the linear motion device, based upon the detection position signal value from the magnetic field sensor; a device position instruction signal generation circuit configured to output a target position signal value to instruct a target position to which the linear motion device moves; an output driver configured to supply a driving current to the driving coil based upon the detection position operation signal value and the target position signal value; and a leak magnetic field correction circuit configured to correct a detection error of the magnetic field sensor due to a leak magnetic field of the driving coil based upon a difference between the detection position signal value when an electric power is not supplied to the driving coil and the detection position signal value when the electric power is supplied to the driving coil. the linear motion device having a magnet attached to a moving body; a driving coil disposed in a vicinity of the magnet of the linear motion device, the driving coil being configured to move the magnet; a magnetic field sensor configured to detect a magnetic field generated by the magnet and configured to output a detection position signal value corresponding to a value of a detected magnetic field; a calibration operation circuit configured to obtain a detection position operation signal value from a first position signal value corresponding to a first position of the linear motion device and a second position signal value corresponding to a second position of the linear motion device, based upon the detection position signal value from the magnetic field sensor; a device position instruction signal generation circuit configured to output a target position signal value to instruct a target position to which the linear motion device moves; an output driver configured to supply a driving current to the driving coil based upon the detection position operation signal value and the target position signal value; and a leak magnetic field correction circuit configured to correct a detection error of the magnetic field sensor due to a leak magnetic field of the driving coil based upon a difference between the detection position signal value when an electric power is not supplied to the driving coil and the detection position signal value when the electric power is supplied to the driving coil.
Arrangement comprising a terminal block, wherein the terminal block has at least one housing with a first insertion opening, a second insertion opening and a third insertion opening, and a clamping body, comprising a contact metal, a first spring and a second spring, is arranged inside the housing, characterized in that the clamping body has a third spring, wherein the first spring, the second spring and the third spring each have a fastening spring limb (311, 321, 331) and each have a clamping spring limb (312, 322, 332), and in that the arrangement has a discharge resistor and a capacitor, wherein the capacitor has at least one capacitor wire and the capacitor wire is inserted through the second insertion opening of the housing and is clamped and electrically contact-connected to the contact metal by means of the second spring, wherein the discharge resistor has a plug contact and the plug contact is inserted through the first insertion opening of the housing, wherein the plug contact of the discharge resistor is clamped and electrically contact-connected to the contact metal by means of the first spring.