mhurhangee/ep-ind-claims huggingface dataset:
An imaging system, comprising: two photographing optical systems, each including an imaging optical system (WLA, WLB) having a full angle of view A (degree) larger than 180 degrees and an imaging element (SNA, SNB) for converting light condensed by the imaging optical system into an image signal, wherein in the imaging optical system of each of the photographing optical systems, a magnification per unit angle of view monotonically increases from 0 to 180 degrees angle of view, and after the 180 degree angle of view to the full angle of view A (degree) the change of magnification per unit angle of view is monotonic and lower than an increase rate from 0 to 180 degree angle of view. two photographing optical systems, each including an imaging optical system (WLA, WLB) having a full angle of view A (degree) larger than 180 degrees and an imaging element (SNA, SNB) for converting light condensed by the imaging optical system into an image signal, wherein in the imaging optical system of each of the photographing optical systems, a magnification per unit angle of view monotonically increases from 0 to 180 degrees angle of view, and after the 180 degree angle of view to the full angle of view A (degree) the change of magnification per unit angle of view is monotonic and lower than an increase rate from 0 to 180 degree angle of view.
Cosmetic preparation comprising a) magnolia officinalis bark extract and b) one or more oils having a polarity of 20 mN/m to 30 mN/m, characterized in that the oils having a polarity of 20 mN/m to 30 mN/m are selected from the group of compounds of ethylhexyl esters of fatty acids. a) magnolia officinalis bark extract and b) one or more oils having a polarity of 20 mN/m to 30 mN/m, characterized in that the oils having a polarity of 20 mN/m to 30 mN/m are selected from the group of compounds of ethylhexyl esters of fatty acids.
A Madin-Darby canine kidney (MDCK)-derived cell line that is derived from MDCK cells deposited under accession number ATCC CCL-34, does not require serum for cell growth and is prepared by suspension culture without the need to be attached to carriers, wherein the Madin-Darby canine kidney (MDCK)-derived cell line is MDCK Sky1023 deposited with DSMZ under accession No. DSM ACC3112.
A nozzle for a floor vacuum cleaner comprising a first air duct section, which is connected to a second air duct section in a pivotably movable manner, wherein one end of the first air duct section defines an outer joint part, into which an inner joint part of the second air duct section is inserted so as to be movable about a pivot axis, and wherein the joint parts are sealed by means of flexible seals, characterized in that provision is made for the seal between the first and the second air duct section for sealing lips, which are integrally molded to the outer joint part and which surround the outer surfaces (10a, 10b, 10c) of the inner joint part at least in sections, wherein free ends of the sealing lips are subjected to the ambient pressure, so that the sealing lips are sucked in by means of a low pressure, which prevails inside the air duct sections, and are pressed against the outer surfaces of the inner joint part, in response to a use of the nozzle.
An internal combustion engine of a premixed charge compression self-ignition type in which fuel and intake gas are premixed with each other, and the mixture is compressed and self-ignites, comprising target ignition timing determination means to determine a target ignition timing θ based on at least an engine operation state, target compression ratio determination means to determine a target compression ratio εt required for the mixture to ignite, and control means to control opening and closing of an intake valve so that an effective compression ratio θ at the target ignition timing becomes equal to the target compression ratio et.
A method comprising: outputting, by a computing device (100, 200, 300, 500) and for display at an output component (102, 270, 370, 502) operatively coupled to the computing device, a graphical keyboard; responsive to receiving an indication of a first input detected at a location of a presence-sensitive input component (102, 272, 372, 502) operatively coupled to the computing device, determining, based at least in part on the indication of the first input, a new character string that is not included in a language model (212, 512), wherein the location of the presence-sensitive input component corresponds to a location of the output component; adding the new character string to the language model and associating a likelihood value with the new character string; responsive to receiving an indication of a second input detected at a second location of the presence-sensitive input component, predicting the new character string; determining a particular input context when predicting the new character string; and responsive to receiving an indication of a third input that rejects the new character string, decreasing the likelihood value associated with the new character string, wherein the rate or magnitude at which the likelihood value is decreased is based at least in part on the input context. outputting, by a computing device (100, 200, 300, 500) and for display at an output component (102, 270, 370, 502) operatively coupled to the computing device, a graphical keyboard; responsive to receiving an indication of a first input detected at a location of a presence-sensitive input component (102, 272, 372, 502) operatively coupled to the computing device, determining, based at least in part on the indication of the first input, a new character string that is not included in a language model (212, 512), wherein the location of the presence-sensitive input component corresponds to a location of the output component; adding the new character string to the language model and associating a likelihood value with the new character string; responsive to receiving an indication of a second input detected at a second location of the presence-sensitive input component, predicting the new character string; determining a particular input context when predicting the new character string; and responsive to receiving an indication of a third input that rejects the new character string, decreasing the likelihood value associated with the new character string, wherein the rate or magnitude at which the likelihood value is decreased is based at least in part on the input context.
Vehicle lamp (1, 1', 1", 1"') comprising at least one optical element comprising a plurality of facet faces, wherein the directions of the light beams (L1-1, L1-2, L1-3, L2-1, L2-2, L2-3, L3-1, L3-2, L3-3) emitted in the direction of the optical element through the facet faces (9, 9-1, 9-2, 9-3), may be modified, characterized in that the optical elements (7, 7', 7", 7"') are associated with a plurality of light sources (4, 4-1, 4-2, 4-3), and wherein the light sources (4, 4-1, 4-2, 4-3) are so controlled and so arranged relative to the positions and/or orientations of the facet faces (9, 9-1, 9-2, 9-3), that the light beams (L1-1, L1-2, L1-3, L2-1, L2-2, L2-3, L3-1, L3-2, L3-3) emitted by the light sources (4, 4-1, 4-2, 4-3) are reflected from the optical elements (7, 7', 7", 7'"), wherein at least one light function with a perceptible sparkle may be generated in a certain viewing position, wherein the optical elements (7, 7', 7", 7"') are transparent, and wherein at least one further light source is provided on one side of the optical element (7, 7', 7", 7"') facing away from the viewing position and through which light beams for the production of at least one second light function pass in the direction of the viewing position, may be emitted by the optical elements (7, 7', 7", 7"').
A method for producing a shaped refractory, characterized in that into a fired refractory with a pore volume/pore diameter distribution curve having a maximum peak at a pore diameter of not less than 10 μm is impregnated a slurry containing oxide powder and dispersing agent after mechanical agitation of the slurry for breaking apart of agglomerated particles of the oxide in the slurry and then the fired refractory with the slurry is further dried so that a pore volume/pore diameter distribution curve in the shaped refractory has a maximum peak at a pore diameter of not less than 10 μm and also a peak within a pore diameter range of 0.05∼1.0 μm in a central part located at least 5 mm inward from the surface of the shaped refractory in a normal direction, wherein when the slurry containing the oxide powder and dispersing agent is impregnated into the fired refractory after the slurry is mechanically agitated to break apart agglomerated particles of the oxide in the slurry, a median particle size of particles suspended in the slurry is less than 2 μm as a measurement value through a laser diffraction scattering method.
A slag monitoring device for a coal gasifier, comprising: a slag-hole observing unit that observes a slag hole from which molten slag flows out; a water-surface observing unit that observes a situation in which the slag flowing out from the slag hole falls onto a water surface of cooling water; and a processing device that determines a solidification and adhesion position of the slag based on an opening area of the slag hole observed by the slag-hole observing unit, and the number of slag lines and falling positions of the slag observed by the water-surface observing unit, and wherein the processing device is adapted to perform control in such a manner that, when the slag is solidified and adheres to a position where the slag cannot be removed by using a slag melting burner, the slag melting burner is not operated. a slag-hole observing unit that observes a slag hole from which molten slag flows out; a water-surface observing unit that observes a situation in which the slag flowing out from the slag hole falls onto a water surface of cooling water; and a processing device that determines a solidification and adhesion position of the slag based on an opening area of the slag hole observed by the slag-hole observing unit, and the number of slag lines and falling positions of the slag observed by the water-surface observing unit, and wherein the processing device is adapted to perform control in such a manner that, when the slag is solidified and adheres to a position where the slag cannot be removed by using a slag melting burner, the slag melting burner is not operated.
A method for proxy-based authentication comprising: receiving from a client, at a proxy via a native protocol, a first access request requesting access by the client to a target application, wherein the first access request comprises client access credentials associated with a user; determining target application access credentials based at least in part on the first access request and a policy enforced by the proxy, wherein the target application access credentials are effective to authenticate the proxy to the target application and are distinct from the client access credentials; providing to the target application a second access request requesting access to the target application, wherein the second access request comprises the target application access credentials; and responsive to the proxy being authenticated to the target application based on the target application access credentials, establishing access for the client to the target application via the native protocol, wherein the access is consistent with the policy and is established based on the target application access credentials, and the client is not exposed to the target application access credentials. receiving from a client, at a proxy via a native protocol, a first access request requesting access by the client to a target application, wherein the first access request comprises client access credentials associated with a user; determining target application access credentials based at least in part on the first access request and a policy enforced by the proxy, wherein the target application access credentials are effective to authenticate the proxy to the target application and are distinct from the client access credentials; providing to the target application a second access request requesting access to the target application, wherein the second access request comprises the target application access credentials; and responsive to the proxy being authenticated to the target application based on the target application access credentials, establishing access for the client to the target application via the native protocol, wherein the access is consistent with the policy and is established based on the target application access credentials, and the client is not exposed to the target application access credentials.
Method of estimating at least one modulation parameter of an OFDM signal, said signal being sampled during a time window in order to provide a sequence of samples, characterised in that: (a) consecutive samples of said sequence are grouped together, according to a tested value ( θ̃) of said parameter, in order to form a plurality of vectors; (b) the covariance matrix ( R̂ yy ( θ̃)) of the vectors thus obtained is estimated; (c) it is calculated the theoretical covariance matrix ( R yy ( θ̃)) that would be obtained using an OFDM signal of which said modulation parameter would have said tested value, the theoretical covariance matrix R yy ( θ̃, σ̃ a, σ̃ b) being calculated by means of: R yy θ ̃, σ ̃ a, σ ̃ b = σ ̃ a 2 F θ ̃ F θ ̃ H + σ ̃ b 2 I θ ̃ where θ̃, σ ̃ a 2, σ ̃ b 2 are respectively the tested values of the modulation parameter, of the signal power and of the noise power; I θ̃ is the unit matrix of size Ñ × Ñ where Ñ is the number of sub-carriers of the OFDM multiplex, known or supposed, and the matrix F θ̃ is a matrix size P̃ × Ñ with P ̃ = ⌊ NT ̃ c + DT ̃ c / T ̃ e ⌋, of which the elements are given by: F m, n θ ̃ = 1 N ̃ e − 2 iπnm T e NT ̃ c e − 2 iπn DT ̃ c NT ̃ c where NT ̃ c is the useful duration of the OFDM symbols, known or tested, DT ̃ c is the duration of the prefix of the OFDM symbols, known or tested, and T e is the sampling period of the OFDM signal; (d) a distance is measured between the covariance matrix and the theoretical covariance matrix; and in that the steps (a), (b), (c) and (d) are iterated, the steps (c) and (d) being iterated for a plurality of tested values of signal and noise power, the estimated value of the parameter being that achieving the shortest distance in the step (d). (a) consecutive samples of said sequence are grouped together, according to a tested value ( θ̃) of said parameter, in order to form a plurality of vectors; (b) the covariance matrix ( R̂ yy ( θ̃)) of the vectors thus obtained is estimated; (c) it is calculated the theoretical covariance matrix ( R yy ( θ̃)) that would be obtained using an OFDM signal of which said modulation parameter would have said tested value, the theoretical covariance matrix R yy ( θ̃, σ̃ a, σ̃ b) being calculated by means of: R yy θ ̃, σ ̃ a, σ ̃ b = σ ̃ a 2 F θ ̃ F θ ̃ H + σ ̃ b 2 I θ ̃ where θ̃, σ ̃ a 2, σ ̃ b 2 are respectively the tested values of the modulation parameter, of the signal power and of the noise power; I θ̃ is the unit matrix of size Ñ × Ñ where Ñ is the number of sub-carriers of the OFDM multiplex, known or supposed, and the matrix F θ̃ is a matrix size P̃ × Ñ with P ̃ = ⌊ NT ̃ c + DT ̃ c / T ̃ e ⌋, of which the elements are given by: F m, n θ ̃ = 1 N ̃ e − 2 iπnm T e NT ̃ c e − 2 iπn DT ̃ c NT ̃ c where NT ̃ c is the useful duration of the OFDM symbols, known or tested, DT ̃ c is the duration of the prefix of the OFDM symbols, known or tested, and T e is the sampling period of the OFDM signal; (d) a distance is measured between the covariance matrix and the theoretical covariance matrix;
An ice making apparatus for a refrigerator, including: - an ice maker configured to make ice; - a dispenser to dispense the ice, - an ice bank that stores ice therein supplied from the ice maker and has an opening that discharges the ice on its one side to the dispenser - an ejector provided in a space where the ice bank contacts the dispenser, wherein the ejector is configured to selectively open and close the opening, rotate to promote movement of ice from within the ice bank toward the opening for ejecting ice in the ice bank to the dispenser; - a sensor that is configured to sense a position of the ejector relative to the opening of the ice bank; and - a controller configured to, in response to completion of an ice dispensing operation, determine whether the ejector closes the opening of the ice bank based on an output from the sensor and that is configured to, in response to a determination that the ejector does not close the opening of the ice bank, control the ejector to rotate to a position in which the ejector closes the opening of the ice bank. - an ice maker configured to make ice; - a dispenser to dispense the ice, - an ice bank that stores ice therein supplied from the ice maker and has an opening that discharges the ice on its one side to the dispenser - an ejector provided in a space where the ice bank contacts the dispenser, wherein the ejector is configured to selectively open and close the opening, rotate to promote movement of ice from within the ice bank toward the opening for ejecting ice in the ice bank to the dispenser; selectively open and close the opening, rotate to promote movement of ice from within the ice bank toward the opening for ejecting ice in the ice bank to the dispenser; - a sensor that is configured to sense a position of the ejector relative to the opening of the ice bank; and - a controller configured to, in response to completion of an ice dispensing operation, determine whether the ejector closes the opening of the ice bank based on an output from the sensor and that is configured to, in response to a determination that the ejector does not close the opening of the ice bank, control the ejector to rotate to a position in which the ejector closes the opening of the ice bank.
An apparatus, comprising: a first network switch configured to be within a Fibre Channel over Ethernet, FCoE, network without a Fibre Channel Forwarder, FCF, and having a plurality of network switches including the first network switch, the first network switch configured to receive, from a first network device, a login signal including a proposed logical identifier for the first network device, the first network switch configured to send, in response to the login signal, a multicast signal including the proposed logical identifier to remaining network switches from the plurality of network switches such that a second network switch from the plurality of network switches enforces a zone policy in response to receiving the multicast signal and prior to sending the proposed logical identifier to a second network device.
A method performed by a bypass device (190, 230, 400) in a communication network having an access network (150, 200), the access network (150, 200) comprising a base station (170, 260), an intermediate service platform (180, 220, 470) that receives and transmits one or more data channels (212, 216) in the communication network, and a gateway (210, 410) connected to a core network, the intermediate service platform (180, 220, 470) being connected to the base station (170, 260) by means of a first interface, the intermediate service platform (180, 220, 470) being connected to the gateway (210, 410) by means of a second interface, the bypass device having an input for monitoring and intercepting traffic that passes through the second interface and an output for monitoring and intercepting traffic that passes through the first interface, the method comprising: receiving, with the bypass device (190, 230, 400), at least a data channel at the second interface, the data channel comprising data in a format that is compatible with the intermediate service platform (180, 220, 470); separating the data, with the bypass device (190, 230, 400), into a first set of data to be handled by the intermediate service platform (180, 220, 470) and a second set of data to be handled by the bypass device; providing the first set of data to the intermediate service platform (180, 220, 470); processing, using the bypass device (190, 230, 400), the second set of data to create a bypass data channel, the bypass data channel comprising data in a bypass format; and forwarding the bypass data channel to a remote node (192, 250, 480) connecting the base station to the intermediate service platform. receiving, with the bypass device (190, 230, 400), at least a data channel at the second interface, the data channel comprising data in a format that is compatible with the intermediate service platform (180, 220, 470); separating the data, with the bypass device (190, 230, 400), into a first set of data to be handled by the intermediate service platform (180, 220, 470) and a second set of data to be handled by the bypass device; providing the first set of data to the intermediate service platform (180, 220, 470); processing, using the bypass device (190, 230, 400), the second set of data to create a bypass data channel, the bypass data channel comprising data in a bypass format; and forwarding the bypass data channel to a remote node (192, 250, 480) connecting the base station to the intermediate service platform.