mhurhangee/ep-ind-claims huggingface dataset:
Computer-implemented method for training a machine learning system for generating driving profiles and/or driving routes, in particular speed profiles, profiles of accelerator pedal positions or profiles of a gear ratio, of a vehicle, characterized by the steps of: - a generator of the machine learning system obtaining first random vectors as input variables and generating first driving routes and associated first driving profiles each relating to the first random vectors, - driving routes and respectively associated driving profiles recorded in driving mode being stored in a database, - second driving routes and also respectively associated second driving profiles recorded in driving mode being selected from the database, - a discriminator of the machine learning system obtaining as input variables first pairs made up of first generated driving routes and respectively associated first, generated driving profiles and second pairs made up of second driving routes and respectively associated second driving profiles recorded in driving mode, - the discriminator calculating, as a function of the input variables, outputs which characterize for each pair, obtained as input variables, whether the pair is a first pair made up of a first generated driving route and a respectively associated first, generated driving profile or a second pair made up of a second driving route and a respectively associated second driving profile recorded in driving mode, - a target function being optimized as a function of the outputs of the discriminator, the target function representing a distance between the distribution of the first pairs and the distribution of the second pairs. - a generator of the machine learning system obtaining first random vectors as input variables and generating first driving routes and associated first driving profiles each relating to the first random vectors, - driving routes and respectively associated driving profiles recorded in driving mode being stored in a database, - second driving routes and also respectively associated second driving profiles recorded in driving mode being selected from the database, - a discriminator of the machine learning system obtaining as input variables first pairs made up of first generated driving routes and respectively associated first, generated driving profiles and second pairs made up of second driving routes and respectively associated second driving profiles recorded in driving mode, - the discriminator calculating, as a function of the input variables, outputs which characterize for each pair, obtained as input variables, whether the pair is a first pair made up of a first generated driving route and a respectively associated first, generated driving profile or a second pair made up of a second driving route and a respectively associated second driving profile recorded in driving mode, - a target function being optimized as a function of the outputs of the discriminator, the target function representing a distance between the distribution of the first pairs and the distribution of the second pairs.
A secure Near Field Communication apparatus, comprising: a plug-in socket for inserting a security module; and an NFC unit for communicating with an outside via non-contact NFC using signals based on a SigIn-SigOut-Connection (S2C) protocol; and a protocol matching unit for identifying a type of chip in the inserted security module according to a signal received from the security module, wherein the identification is performed by first determining whether the chip is based on an S2C protocol and then determining whether the chip is based on an ISO protocol if the chip is not based on an S2C protocol, generating a chip identification signal according to results of the identification, and matching a protocol of the signals based on the S2C protocol, which are input to and output from the NFC unit, with a protocol of signals, which are input to and output from the security module, according to the chip identification signal. a plug-in socket for inserting a security module; and an NFC unit for communicating with an outside via non-contact NFC using signals based on a SigIn-SigOut-Connection (S2C) protocol; and a protocol matching unit for identifying a type of chip in the inserted security module according to a signal received from the security module, wherein the identification is performed by first determining whether the chip is based on an S2C protocol and then determining whether the chip is based on an ISO protocol if the chip is not based on an S2C protocol, generating a chip identification signal according to results of the identification, and matching a protocol of the signals based on the S2C protocol, which are input to and output from the NFC unit, with a protocol of signals, which are input to and output from the security module, according to the chip identification signal.
A vehicle with a transmission cover for covering a transmission system of an internal combustion engine, the transmission cover secured adjacent to a crankcase of the engine and comprising: an outer surface projecting laterally, an inner surface internal to the outer surface defining a space to substantially cover the transmission system, a clamping face facing a crankshaft of the engine for securing the transmission cover to the crankcase, side walls along the longitudinal axis of the transmission cover and further comprising: a first stepped bore on the outer surface of the transmission cover with its long axis approximately parallel to the clamping face and adjacent to a clutch axis to house and secure a first electromechanical actuator, a second stepped bore formed on the outer surface of the transmission cover at an upper portion with its long axis approximately perpendicular to the clamping face and parallel to a long axis of the crankshaft to house and secure a second electro mechanical actuator, a flange with a centre bore coinciding with the clutch axis and formed on the outer face of the transmission cover to fit a detecting device for helping either of the actuators, a threaded opening on an upper portion of the side wall for mounting a knob used to check engine oil level, an extended cavity with a third stepped bore provided at a lower portion of the outer surface of the transmission cover for housing an oil filter, an external face secured on the edge on the extended cavity so as to cover the oil filter, and an oil cavity formed by addition of a wall adjacent to the side walls which connect to the extended cavity of the oil filter housing provided in the inner surface. a first stepped bore on the outer surface of the transmission cover with its long axis approximately parallel to the clamping face and adjacent to a clutch axis to house and secure a first electromechanical actuator, a second stepped bore formed on the outer surface of the transmission cover at an upper portion with its long axis approximately perpendicular to the clamping face and parallel to a long axis of the crankshaft to house and secure a second electro mechanical actuator, a flange with a centre bore coinciding with the clutch axis and formed on the outer face of the transmission cover to fit a detecting device for helping either of the actuators, a threaded opening on an upper portion of the side wall for mounting a knob used to check engine oil level, an extended cavity with a third stepped bore provided at a lower portion of the outer surface of the transmission cover for housing an oil filter, an external face secured on the edge on the extended cavity so as to cover the oil filter, and an oil cavity formed by addition of a wall adjacent to the side walls which connect to the extended cavity of the oil filter housing provided in the inner surface.
Angiopoietin-like protein 7 for use as an agent for preventing or treating a corneal disorder, wherein the corneal disorder is at least one member selected from the group consisting of endogenous corneal epithelial disorder, dry eye, and reduction in corneal sensitivity, and wherein the agent is for promoting corneal tissue repair, and/or for promoting neurite formation of the ophthalmic nerve. wherein the corneal disorder is at least one member selected from the group consisting of endogenous corneal epithelial disorder, dry eye, and reduction in corneal sensitivity, and wherein the agent is for promoting corneal tissue repair, and/or for promoting neurite formation of the ophthalmic nerve.
A method performed by an assessment system for prioritization among cameras (21, 22, 23, 2n) of a multi-camera arrangement, said method comprising: obtaining respective geographical camera position (211, 221, 231, 2n1) and camera properties (212, 222, 232, 2n2) of each of said cameras (21, 22, 23, 2n); receiving, e.g. from a surveillance system in connection with said assessment system, information data indicating a geographical object position and object features of a geotagged physical object determined to be positioned in a surrounding in a potential field of view (213, 223, 233, 2n3) of each of said cameras (21, 22, 23, 2n); determining for each of said cameras (21, 22, 23, 2n), by comparing said object position and object features with said respective camera position (211, 221, 231, 2n1) and camera properties (212, 222, 232, 2n2), a respective distance (D1, D2, D3, Dn) to said object position and a respective expected pixel size of said object at said respective distance (D1, D2, D3, Dn); determining respective conformity of said respective expected pixel size, with respective image data (214, 224, 234, 2n4) of said surrounding derived from each of said cameras (21, 22, 23, 2n); and assigning each of said cameras (21, 22, 23, 2n) a respective rating based on respective determined conformity. obtaining respective geographical camera position (211, 221, 231, 2n1) and camera properties (212, 222, 232, 2n2) of each of said cameras (21, 22, 23, 2n); receiving, e.g. from a surveillance system in connection with said assessment system, information data indicating a geographical object position and object features of a geotagged physical object determined to be positioned in a surrounding in a potential field of view (213, 223, 233, 2n3) of each of said cameras (21, 22, 23, 2n); determining for each of said cameras (21, 22, 23, 2n), by comparing said object position and object features with said respective camera position (211, 221, 231, 2n1) and camera properties (212, 222, 232, 2n2), a respective distance (D1, D2, D3, Dn) to said object position and a respective expected pixel size of said object at said respective distance (D1, D2, D3, Dn); determining respective conformity of said respective expected pixel size, with respective image data (214, 224, 234, 2n4) of said surrounding derived from each of said cameras (21, 22, 23, 2n); and assigning each of said cameras (21, 22, 23, 2n) a respective rating based on respective determined conformity.
A method of controlling services in a system that includes a plurality of independent communication networks, the method comprising: receiving in a processor (402-410, 502) bounding information from a first server computing device in a first communication network of the plurality of independent communication networks, the bounding information identifying an upper bound on a maximum amount of latency allowed per decision of a decision tree; receiving in the processor (402-410, 502) decision making information from a second server computing device in a second communication network of the plurality of independent communication networks, the decision making information comprising information for determining how services are to be charged to subscribers and how network resources are to be controlled; generating a requested decision core engine, DCE, decision based on the received decision making information and the received bounding information. wherein generating the requested DCE decision includes traversing a decision table to identify one or more actions corresponding to the decision making information, reorganizing an execution order of the identified actions based on probability values assigned to the identified actions, and executing the reorganized actions to generate a DCE decision result set; and sending the generated DCE decision result set to a third server computing device implementing a functional system. receiving in a processor (402-410, 502) bounding information from a first server computing device in a first communication network of the plurality of independent communication networks, the bounding information identifying an upper bound on a maximum amount of latency allowed per decision of a decision tree; receiving in the processor (402-410, 502) decision making information from a second server computing device in a second communication network of the plurality of independent communication networks, the decision making information comprising information for determining how services are to be charged to subscribers and how network resources are to be controlled; generating a requested decision core engine, DCE, decision based on the received decision making information and the received bounding information. wherein generating the requested DCE decision includes traversing a decision table to identify one or more actions corresponding to the decision making information, reorganizing an execution order of the identified actions based on probability values assigned to the identified actions, and executing the reorganized actions to generate a DCE decision result set; and sending the generated DCE decision result set to a third server computing device implementing a functional system.
A valve (30a, 30b) for a vacuum handling or vacuum clamping device, - comprising a valve housing (32a, 32b) which has a suction side (40a, 40b) and a vacuum supply side (38a, 38b) for connection to a vacuum supply device, - and comprising a flexible dividing wall which delimits a control space in the valve housing (32a, 32b), which control space is connected to the vacuum supply side (38a, 38b) via a vacuum passage, - and comprising a valve body which is arranged on the flexible dividing wall and can be moved between an open position and a closed position, wherein, based on a vacuum that develops in the control space, the volume of the control space is reduced accompanied by a deformation of the flexible dividing wall and the valve body is moved from the open position into the closed position, so that when suction is freely applied while the suction side is unoccupied, the valve body can be moved to the closed position as a result of a vacuum that develops in the control space, wherein the valve body has a suction-side passage for connecting the suction side (40a, 40b) to the control space in terms of flow, characterized in that the valve body has a sealing portion which seals off the vacuum passage when in the closed position and which opens up the vacuum passage when in the open position, wherein the sealing portion is situated such that it rests against an assigned seat in the valve housing (32a, 32b) in order to seal off the vacuum passage. - comprising a valve housing (32a, 32b) which has a suction side (40a, 40b) and a vacuum supply side (38a, 38b) for connection to a vacuum supply device, - and comprising a flexible dividing wall which delimits a control space in the valve housing (32a, 32b), which control space is connected to the vacuum supply side (38a, 38b) via a vacuum passage, - and comprising a valve body which is arranged on the flexible dividing wall and can be moved between an open position and a closed position,
Main board for a computer device comprising a plurality of main board components arranged on a first surface of the main board, wherein further Trusted Platform Module, TPM, components (2, 3) are arranged on the first surface of the main board, wherein the TPM components (2, 3) are located in a predetermined area of the main board, the predetermined area being detachable from the main board by means of a predetermined break line, wherein the predetermined break line is formed by at least a portion of the predetermined area being surrounded by a perforated line and optionally pre-cut lines (8, 8'), wherein the perforated line comprises a plurality of holes respectively extending from the first surface of the main board to a second surface on the backside of the main board, and wherein electric signal lines for connecting the predetermined area forming the integrated TPM to the main board are respectively provided so as to pass through an area between respectively two holes of the perforated line.
An antenna device (100, 200, 300), comprising: a radio frequency transceiving circuit (11, 21, 31); a metal housing (13, 23, 33), the metal housing (13, 23, 33) being provided with at least one micro-seam band (130, 230, 330), and an edge of the metal housing (13, 23, 33) comprising a straight section, the at least one micro-seam band (130, 230, 330) comprising a straight part corresponding to and parallel to the straight section of the metal housing (13, 23, 33); and a matching circuit (12, 22, 32), by means of which the radio frequency transceiving circuit (11, 21, 31) is electrically coupled to the metal housing (13, 23, 33), such that the metal housing (13, 23, 33) is used as a radiating body of the antenna device (100, 200, 300), characterised in that the edge of the metal housing (13, 23, 33) comprises an arc-shaped section, the straight section and the arc-shaped section are continuous, the at least one micro-seam band (130, 230, 330) comprises an arc-shaped part, the straight part and the arc-shaped part are continuous in one surface of the metal housing (13, 23, 33), and the arc-shaped part corresponds to the arc-shaped section of the metal housing (13, 23, 33) and has a shape matching a shape of the arc-shaped section of the metal housing (13, 23, 33). a radio frequency transceiving circuit (11, 21, 31); a metal housing (13, 23, 33), the metal housing (13, 23, 33) being provided with at least one micro-seam band (130, 230, 330), and an edge of the metal housing (13, 23, 33) comprising a straight section, the at least one micro-seam band (130, 230, 330) comprising a straight part corresponding to and parallel to the straight section of the metal housing (13, 23, 33); and a matching circuit (12, 22, 32), by means of which the radio frequency transceiving circuit (11, 21, 31) is electrically coupled to the metal housing (13, 23, 33), such that the metal housing (13, 23, 33) is used as a radiating body of the antenna device (100, 200, 300), characterised in that the edge of the metal housing (13, 23, 33) comprises an arc-shaped section, the straight section and the arc-shaped section are continuous, the at least one micro-seam band (130, 230, 330) comprises an arc-shaped part, the straight part and the arc-shaped part are continuous in one surface of the metal housing (13, 23, 33), and the arc-shaped part corresponds to the arc-shaped section of the metal housing (13, 23, 33) and has a shape matching a shape of the arc-shaped section of the metal housing (13, 23, 33).
An unbonded, flexible pipe having a length and comprising a tubular inner sealing sheath, at least one metal armor layer and an outer sealing sheath, said unbonded, flexible pipe comprises at least one insulated length section comprising a fluid permeable thermally insulating cover surrounding said outer sealing sheath in said insulated length section, said thermally insulating cover being surrounded by a liquid permeable jacket of polymer material, said thermally insulating cover preferably being liquid permeable, preferably said thermally insulating cover and said liquid permeable jacket are sufficiently permeable to allow water to penetrate into the thermally insulating cover when the flexible pipe is applied in water to thereby substantially equalize the hydrostatic pressure between the thermally insulating cover and the immediate ambient pressure, preferably said thermally insulating cover and said liquid permeable jacket are sufficiently permeable to allow water to penetrate into the surface of the outer sealing sheath when subjected to a hydrostatic pressure of at least 34,47 bar (500 psi).
A process for continuously polymerizing at least one olefin in a polymerization reactor in the presence of a catalyst comprising a solid catalyst component further comprising a transition metal, and an activator, said process comprising the steps of: (i) continuously feeding said solid catalyst component into the polymerization reactor to establish a solid catalyst component feed; (ii) continuously feeding said activator into the polymerization reactor to establish an activator feed; (iii) establishing a signal proportional to the flow rate of said solid catalyst component into the polymerization reactor and determining the flow rate of said solid catalyst component from said signal; (iv) establishing a signal proportional to the flow rate of said activator into the polymerization reactor and determining the flow rate of said activator from said signal; (v) defining a predetermined value for a ratio of the activator feed rate to the solid catalyst component feed rate; (vi) calculating the concentration of the activator within fluid phase in said reactor; (vii)defining a minimum value for said concentration of said activator; (viii) increasing said predetermined value for the ratio of the activator feed rate to the solid catalyst component feed rate if the concentration of the activator is lower than said minimum value for said concentration. characterized in that the feed rate of said activator is adjusted in response to changes in said solid catalyst component feed rate so that the ratio of said activator feed rate to said solid catalyst component feed rate is at said predetermined value for said ratio. (i) continuously feeding said solid catalyst component into the polymerization reactor to establish a solid catalyst component feed; (ii) continuously feeding said activator into the polymerization reactor to establish an activator feed; (iii) establishing a signal proportional to the flow rate of said solid catalyst component into the polymerization reactor and determining the flow rate of said solid catalyst component from said signal; (iv) establishing a signal proportional to the flow rate of said activator into the polymerization reactor and determining the flow rate of said activator from said signal; (v) defining a predetermined value for a ratio of the activator feed rate to the solid catalyst component feed rate; (vi) calculating the concentration of the activator within fluid phase in said reactor; (vii)defining a minimum value for said concentration of said activator; (viii) increasing said predetermined value for the ratio of the activator feed rate to the solid catalyst component feed rate if the concentration of the activator is lower than said minimum value for said concentration.
Domestic appliance comprising at least one processing chamber, which is assigned at least one antenna, having a wireless transmission system for wirelessly recording the temperature of a product introduced into the processing chamber, during which temperature signals are wirelessly coupled into the antenna, and comprising a sensor device which has a temperature sensor and a wireless transmitting device, characterised in that a coupling arrangement which is in operative connection with the antenna via a connecting device is provided in the processing chamber such that the antenna is capacitively coupled to the coupling arrangement by means of the connecting device, such that high frequency electrical radiation can be coupled into the coupling arrangement via the antenna or such that high frequency radiation from the coupling arrangement can be coupled into the antenna, and the coupling arrangement serves as a transmitting and/or receiving device for electromagnetic waves, and in that the coupling arrangement is designed as a heater.
A malonate salt of a compound of formula: which is a crystalline salt, characterized by an X-ray powder diffraction (XRPD) pattern comprising a characteristic peak at 3.0° ± 0.2 2 θ.