mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: intercepting, at a gateway device, first data from an originating device (105a, 105b, 110), the first data including a request for a uniform resource locator; determining whether the originating device is a wireless device; determining whether the originating device is in an authenticated state relative to the gateway device; if the originating device is a wireless device and is not in the authenticated state, sending second data to the originating device, the second data including a uniform resource locator redirection command to cause a browser executing on the originating device to install and launch an authentication application for authenticating the originating device relative to the gateway device by providing user-specific credential information to the gateway device, wherein the application allows the user to enter credentials once, and store the credentials on the device so that the user does not have to enter credentials again; receiving the user-specific credential information from the originating device; and marking a network address of the originating device as being in the authenticated state based on a successful authentication of the user-specific credential information. intercepting, at a gateway device, first data from an originating device (105a, 105b, 110), the first data including a request for a uniform resource locator; determining whether the originating device is a wireless device; determining whether the originating device is in an authenticated state relative to the gateway device; if the originating device is a wireless device and is not in the authenticated state, sending second data to the originating device, the second data including a uniform resource locator redirection command to cause a browser executing on the originating device to install and launch an authentication application for authenticating the originating device relative to the gateway device by providing user-specific credential information to the gateway device, wherein the application allows the user to enter credentials once, and store the credentials on the device so that the user does not have to enter credentials again; receiving the user-specific credential information from the originating device; and marking a network address of the originating device as being in the authenticated state based on a successful authentication of the user-specific credential information.
A monitoring system for a vehicle, wherein the vehicle comprises a plurality of driving modes, and the monitoring system comprises: an instruction-generating device configured to generate a control instruction for triggering one of the plurality of driving modes of the vehicle, and a communication device configured to send the control instruction to the vehicle for triggering the vehicle to travel according to the one of the plurality of driving modes, wherein the vehicle comprises an autonomous driving system, the monitoring system being characterised in the autonomous driving system comprising a first autonomous driving subsystem and a second autonomous driving subsystem, and the first autonomous driving subsystem and the second autonomous driving subsystem comprising different sensors, wherein the plurality of driving modes comprise the following driving modes: a first driving mode in which the first autonomous driving subsystem controls the vehicle to travel a first distance and then stop; a second driving mode in which the first autonomous driving subsystem controls the vehicle to travel a second distance and then stop; and a third driving mode in which the second autonomous driving subsystem controls the vehicle to travel a third distance and then stop, wherein the second distance is greater than the first distance and the third distance. an instruction-generating device configured to generate a control instruction for triggering one of the plurality of driving modes of the vehicle, and a communication device configured to send the control instruction to the vehicle for triggering the vehicle to travel according to the one of the plurality of driving modes, wherein the vehicle comprises an autonomous driving system, the monitoring system being characterised in the autonomous driving system comprising a first autonomous driving subsystem and a second autonomous driving subsystem, and the first autonomous driving subsystem and the second autonomous driving subsystem comprising different sensors, wherein the plurality of driving modes comprise the following driving modes: a first driving mode in which the first autonomous driving subsystem controls the vehicle to travel a first distance and then stop; a second driving mode in which the first autonomous driving subsystem controls the vehicle to travel a second distance and then stop; and a third driving mode in which the second autonomous driving subsystem controls the vehicle to travel a third distance and then stop, wherein the second distance is greater than the first distance and the third distance. a first driving mode in which the first autonomous driving subsystem controls the vehicle to travel a first distance and then stop; a second driving mode in which the first autonomous driving subsystem controls the vehicle to travel a second distance and then stop; and a third driving mode in which the second autonomous driving subsystem controls the vehicle to travel a third distance and then stop, wherein the second distance is greater than the first distance and the third distance.
A method for preparing a fermented ginseng concentrate comprising: subjecting ginseng to an extraction with a solvent selected from water, ethanol, and a mixture thereof to obtain a ginseng extract; adding pectinase and beta-galactosidase to the ginseng extract under conditions effective to ferment the ginseng extract; and concentrating the fermented ginseng extract to produce a fermented ginseng concentrate. subjecting ginseng to an extraction with a solvent selected from water, ethanol, and a mixture thereof to obtain a ginseng extract; adding pectinase and beta-galactosidase to the ginseng extract under conditions effective to ferment the ginseng extract; and concentrating the fermented ginseng extract to produce a fermented ginseng concentrate.
A controller of a direct injection engine adapted to inject fuel directly into a cylinder at least in an intake stroke and ignite evaporated fuel therein by means of an ignition plug, the controller comprising: a means for detecting fuel lightness by detecting fuel components, wherein: the controller is adapted to set fuel injection timing more toward the end of the intake stroke as the fuel lightness gets higher only at time of operation when a throttle valve that controls quantity of air supplied into the cylinder of the direct injection engine fully opens. a means for detecting fuel lightness by detecting fuel components, wherein: the controller is adapted to set fuel injection timing more toward the end of the intake stroke as the fuel lightness gets higher only at time of operation when a throttle valve that controls quantity of air supplied into the cylinder of the direct injection engine fully opens.
A therapeutic compound comprising an agent that inhibits the activity of HIC1 gene, wherein said agent is selected from the group consisting of anti-sense DNA or RNA, siRNA, shRNA, TALENS or ribozymes, either naked or in the form of plasmid or viral vectors, and antibodies, for use in the prevention and/or treatment of fibrosis, hypertrophic scar or keloid.
A process for manufacturing a laminated glazing comprising at least a first glass sheet and a second glass sheet, wherein the face of the first glass sheet intended to be oriented toward the second is printed with a liquid enamel which is dried at a temperature not exceeding 400°C, then the first and the second glass sheets are bent together in contact with one another in their relative position of destination in the laminated glazing, by heating at a softening temperature of the glass, characterized in that the liquid enamel is an aqueous silicate paint comprising a refractory powder of pigments and a silicate binder powder, in the absence of glass frit, and in that the weight ratio of pigments to silicates is greater than 1.
A pipetting apparatus, having a pipetting conduit that extends along a conduit axis defining an axial direction and radial directions orthogonal thereto, and that passes through a conduit component arrangement that comprises, at a coupling longitudinal end, a coupling configuration for releasable attachment of a pipette tip, the coupling configuration comprising a locking component having an engagement surface arrangement which faces radially outward with reference to the conduit axis and is displaceable between a locked position located radially farther from the conduit axis and an unlocked position located radially closer to the conduit axis, the pipetting apparatus further comprising a locking actuator that is shiftable along the conduit axis between an engagement position in which the locking actuator is in engagement with the locking component in such a way that it prevents a displacement of the engagement surface arrangement from the locked position into the unlocked position and a release position in which the locking actuator permits assumption of the unlocked position by the engagement surface arrangement, the pipetting apparatus further comprising an actuator drive system that is motion-transferringly connected to the locking actuator in order to drive the locking actuator at least in a motion direction for shifting between an engagement position and a release position, wherein the actuator drive system comprises a switchable magnetic-field source and a ferromagnetic reaction component movable by the locally modifiable magnetic field of the switchable magnetic-field source, the reaction component being motion-transferringly connected to the locking actuator characterized in that the coupling configuration comprises, at an axial distance from the locking component, a sealing component that is embodied separately from the locking component and extends around the pipetting conduit, and in that the engagement surface arrangement is constituted by external surface portions of a plurality of rolling elements provided radially movably on the conduit component arrangement.
A method, comprising: scanning a sensor array; detecting array capacitances of the sensor array; analyzing the array capacitances; characterised by determining that a pattern of array capacitance values in the array capacitances indicates the presence of an ear; determining whether the pattern of array capacitance values matches previously-acquired ear pattern data; and invoking a device operation if the pattern of array capacitance values matches the previously-acquired ear pattern data. scanning a sensor array; detecting array capacitances of the sensor array; analyzing the array capacitances; characterised by determining that a pattern of array capacitance values in the array capacitances indicates the presence of an ear; determining whether the pattern of array capacitance values matches previously-acquired ear pattern data; and invoking a device operation if the pattern of array capacitance values matches the previously-acquired ear pattern data.
A tire bladder of an acrylic rubber composition at least comprising: 100 parts by mass of an acrylic rubber containing 94.5 to 99.5 mass % of an alkyl (meth)acrylate-derived structural unit and 0.5 to 3 mass % of a monoalkyl maleate and/or monoalkoxyalkyl maleate-derived structural unit; 30 to 200 parts by mass of a carbon black having an arithmetic average particle diameter, as determined according to JIS-Z8901, of 20 to 30 nm and a DBP oil absorption of 70 to 130 ml/100 g; 0.1 to 5 parts by mass of an imidazole compound as antioxidant; and 0.1 to 10 parts by mass of a vulcanizing agent, wherein the vulcanizing agent is at least one compound selected from bis[4-(4-aminophenoxy)phenyl]sulfone, bis[4-(3-amino-phenoxy)phenyl]sulfone, 9,9-bis(4-aminophenyl)fluorene, and 4,4'-bis(4-aminophenoxy)biphenyl. 100 parts by mass of an acrylic rubber containing 94.5 to 99.5 mass % of an alkyl (meth)acrylate-derived structural unit and 0.5 to 3 mass % of a monoalkyl maleate and/or monoalkoxyalkyl maleate-derived structural unit; 30 to 200 parts by mass of a carbon black having an arithmetic average particle diameter, as determined according to JIS-Z8901, of 20 to 30 nm and a DBP oil absorption of 70 to 130 ml/100 g; 0.1 to 5 parts by mass of an imidazole compound as antioxidant; and 0.1 to 10 parts by mass of a vulcanizing agent, wherein the vulcanizing agent is at least one compound selected from bis[4-(4-aminophenoxy)phenyl]sulfone, bis[4-(3-amino-phenoxy)phenyl]sulfone, 9,9-bis(4-aminophenyl)fluorene, and 4,4'-bis(4-aminophenoxy)biphenyl.
A method for multiplexing data, the method comprising: receiving a first binary or M-ary data associated with a first multiplexed layer; encoding the first binary or M-ary data by directly selecting a first codeword from a first codebook, wherein the first codeword comprises a K-dimensional sparse vector with N<K non-zero entries and wherein the first codebook is assigned exclusively to the first multiplexed layer, wherein the first codeword has been generated by mapping the first binary data vector to a N-dimensional complex modulation constellation point and by mapping the N-dimensional constellation point to the first codeword; multiplexing the first codeword with at least a second codeword from a second codebook over K shared resources of a network to obtain multiplexed codewords, wherein the second codebook is assigned exclusively to a second multiplexed layer; and transmitting the multiplexed codewords over the shared resources of the network. receiving a first binary or M-ary data associated with a first multiplexed layer; encoding the first binary or M-ary data by directly selecting a first codeword from a first codebook, wherein the first codeword comprises a K-dimensional sparse vector with N<K non-zero entries and wherein the first codebook is assigned exclusively to the first multiplexed layer, wherein the first codeword has been generated by mapping the first binary data vector to a N-dimensional complex modulation constellation point and by mapping the N-dimensional constellation point to the first codeword; multiplexing the first codeword with at least a second codeword from a second codebook over K shared resources of a network to obtain multiplexed codewords, wherein the second codebook is assigned exclusively to a second multiplexed layer; and transmitting the multiplexed codewords over the shared resources of the network.
Method for simultaneously determining the position and velocity of objects, said method comprising the steps of: - simultaneously generating a first signal for determining the velocity and a second signal for determining the position, - mixing the first signal with the second signal to form a mixed signal and subsequently transmitting the mixed signal towards an object using a transmitter, so that the mixed signal can be at least partially reflected by the object and is received as an echo signal, - evaluating the echo signal, characterised in that the evaluation comprises the steps of: - performing a velocity evaluation of the echo signal by taking into account the first signal and the Doppler effect, wherein velocity information as to the object is obtained as a result of said velocity evaluation, - performing a position evaluation of the echo signal by taking into account the second signal, wherein positional information as to the object is obtained as a result of said position evaluation, wherein the echo signal is correlated with the second signal for determining the position. - simultaneously generating a first signal for determining the velocity and a second signal for determining the position, - mixing the first signal with the second signal to form a mixed signal and subsequently transmitting the mixed signal towards an object using a transmitter, so that the mixed signal can be at least partially reflected by the object and is received as an echo signal, - evaluating the echo signal, - performing a velocity evaluation of the echo signal by taking into account the first signal and the Doppler effect, wherein velocity information as to the object is obtained as a result of said velocity evaluation, - performing a position evaluation of the echo signal by taking into account the second signal, wherein positional information as to the object is obtained as a result of said position evaluation, wherein the echo signal is correlated with the second signal for determining the position.
A transfer stack for transfer of electrophoretically separated species from a gel to a membrane, said transfer stack comprising: said gel, said membrane immediately adjacent to said gel and in flat surface contact therewith, and two sheets of absorbent material wetted with buffer solution, one said sheet immediately adjacent to said gel on the side thereof opposite the side in contact with said membrane and the other said sheet immediately adjacent to said membrane on the side thereof opposite the side in contact with said gel, characterized in that each said sheet is composed of a member selected from polyester, polyester/cellulose blends, and polyurethane-coated cellulose. said gel, said membrane immediately adjacent to said gel and in flat surface contact therewith, and two sheets of absorbent material wetted with buffer solution, one said sheet immediately adjacent to said gel on the side thereof opposite the side in contact with said membrane and the other said sheet immediately adjacent to said membrane on the side thereof opposite the side in contact with said gel, characterized in that each said sheet is composed of a member selected from polyester, polyester/cellulose blends, and polyurethane-coated cellulose.
A conjugate of formula wherein PEG is linear or branched and, when q is 2-8, multi-armed, polyethylene glycol; X is O, NH, (CH 2) m, OC(=O)(CH 2) m, or NHC(=O)(CH 2) m wherein m = 1-6; L is (CH 2) r or (CH 2 CH 2 O) p (CH 2) r, wherein r = 1-10 and p = 1-10; R 1 is CN or SO 2 NR 2 2, wherein each R 2 is independently alkyl, aryl, heteroaryl, alkylalkenyl, alkylaryl, or alkylheteroaryl, each optionally substituted, or two R 2 taken together can form a ring; Y is COR 3 or SO 2 R 3, wherein R 3 = OH, alkoxy, or NR 4 2, wherein each R 4 is independently alkyl, substituted alkyl, or two R 4 taken together can form a ring; and q is 1-8. PEG is linear or branched and, when q is 2-8, multi-armed, polyethylene glycol; X is O, NH, (CH 2) m, OC(=O)(CH 2) m, or NHC(=O)(CH 2) m wherein m = 1-6; L is (CH 2) r or (CH 2 CH 2 O) p (CH 2) r, wherein r = 1-10 and p = 1-10; R 1 is CN or SO 2 NR 2 2, wherein each R 2 is independently alkyl, aryl, heteroaryl, alkylalkenyl, alkylaryl, or alkylheteroaryl, each optionally substituted, or two R 2 taken together can form a ring; Y is COR 3 or SO 2 R 3, wherein R 3 = OH, alkoxy, or NR 4 2, wherein each R 4 is independently alkyl, substituted alkyl, or two R 4 taken together can form a ring; and q is 1-8.
A transmission timing information sending method used in a base station, comprising: sending a higher layer signaling to a terminal, wherein the higher layer signaling is used to configure at least one transmission timing set, wherein each of the at least one transmission timing set comprises at least one transmission timing value, and each of the at least one transmission timing set is related to at least one of the following factors: a subcarrier width, and a terminal capability; and sending a downlink control information, DCI, to the terminal, wherein the DCI is used to indicate a transmission timing value in the at least one transmission timing set, and the transmission timing value indicates a slot used by the terminal to send data or feedback information, the feedback information comprising at least one of acknowledgement information and negative acknowledgement information. sending a higher layer signaling to a terminal, wherein the higher layer signaling is used to configure at least one transmission timing set, wherein each of the at least one transmission timing set comprises at least one transmission timing value, and each of the at least one transmission timing set is related to at least one of the following factors: a subcarrier width, and a terminal capability; and sending a downlink control information, DCI, to the terminal, wherein the DCI is used to indicate a transmission timing value in the at least one transmission timing set, and the transmission timing value indicates a slot used by the terminal to send data or feedback information, the feedback information comprising at least one of acknowledgement information and negative acknowledgement information.
A timber frame panel comprising a plurality of framing members (14, 16) which form a perimeter of a window opening in the panel, characterised in that at least one of the framing members has guidance means provided thereon, and in that the timber frame panel includes a window unit slidably attached to said at least one of the framing members (14, 16) by said guidance means such that the entire window unit can move from a first position substantially within the opening in the panel to a second position in which part of the window unit extends outside the opening in the panel, wherein the guidance means is adapted to guide the window unit to move perpendicularly to the plane of the opening in the panel.
Door-stopping unit having at least one holding bar, at least one locking rocker, which rests on the holding bar, and at least one housing, wherein the locking rocker is movably mounted in or on the housing, characterised in that the locking rocker has at least one resilient and/or elastic element which is provided at least in part with at least one plastics casing, wherein an end of the at least one resilient and/or elastic element is received in the material of the housing.
A method of manufacturing a pH-stable blue colorant comprising: A. Peeling off a Genipa americana fruit from its skin, wherein said fruit without skin is Genipa americana fruit pulp; B. Obtaining raw liquid juice from Genipa americana fruit pulp; C. Mixing the raw liquid juice with between 0.2 grams and 1.6 grams of glycine per 100 millilitres of raw liquid juice; and, D. Warming the raw liquid juice mixed with glycine to a temperature between 40 °C and 80 °C for a period of time from 1 hour to 10 hours. A. Peeling off a Genipa americana fruit from its skin, wherein said fruit without skin is Genipa americana fruit pulp; B. Obtaining raw liquid juice from Genipa americana fruit pulp; C. Mixing the raw liquid juice with between 0.2 grams and 1.6 grams of glycine per 100 millilitres of raw liquid juice; and, D. Warming the raw liquid juice mixed with glycine to a temperature between 40 °C and 80 °C for a period of time from 1 hour to 10 hours.