mhurhangee/ep-ind-claims huggingface dataset:
A method for data management, which is applied to a massive parallel processing database, MPPDB, the method comprising, acquiring query behavior information for querying the MPPDB by a user, based on a query request from the user; the query behavior information comprising a query granularity of the user; generating a storage prediction model by machine learning based on the query behavior information, and acquiring a predicted storage state of the MPPDB according to the storage prediction model; the predicted storage state comprising a predicted amount of data to be written into the first storage partition; and characterized in that, the method further comprises, adjusting a storage partition in the MPPDB based on the predicted storage state, comprising, creating a first storage partition in the MPPDB according to the predicted storage state; and determining a time range of the first storage partition according to a size of the predicted amount of data to be written into the first storage partition and the query granularity; wherein, the query granularity is indicative of whether data in the time range is to be frequently queried by the user; all data with time stamps within the time range of the first storage partition are written into the first storage partition; and the time range of the first storage partition comprises a time that goes beyond a current time. acquiring query behavior information for querying the MPPDB by a user, based on a query request from the user; the query behavior information comprising a query granularity of the user; generating a storage prediction model by machine learning based on the query behavior information, and acquiring a predicted storage state of the MPPDB according to the storage prediction model; the predicted storage state comprising a predicted amount of data to be written into the first storage partition; and characterized in that, the method further comprises, adjusting a storage partition in the MPPDB based on the predicted storage state, comprising, creating a first storage partition in the MPPDB according to the predicted storage state; and determining a time range of the first storage partition according to a size of the predicted amount of data to be written into the first storage partition and the query granularity; wherein, the query granularity is indicative of whether data in the time range is to be frequently queried by the user; all data with time stamps within the time range of the first storage partition are written into the first storage partition; and the time range of the first storage partition comprises a time that goes beyond a current time.
Internal combustion engine having a fresh-gas tract for the feed of fresh gas to working cylinders of the internal combustion engine, wherein a mechanically driven compressor is arranged in a charge-air path of the fresh-gas tract, and an air regulating/shut-off flap is arranged in the charge-air path such that, in a manner dependent on a position of the air regulating/shut-off flap, a gas mass flow in the charge-air path can flow entirely or partially via the mechanically driven compressor or past the mechanically driven compressor, characterized in that the mechanically driven compressor is integrated into a bypass channel which partially bypasses a charge-air path section, and the air regulating/shut-off flap - is movable into a first position, which closes the charge-air path section upstream of an outlet of the bypass channel and downstream of an inlet of the bypass channel, and - is movable into a second position, which closes the charge-air path section downstream of the outlet of the bypass channel or upstream of the inlet of the bypass channel. - is movable into a first position, which closes the charge-air path section upstream of an outlet of the bypass channel and downstream of an inlet of the bypass channel, and - is movable into a second position, which closes the charge-air path section downstream of the outlet of the bypass channel or upstream of the inlet of the bypass channel.
An electronic device, comprising: a main processor; a network interface controller, NIC, that includes a NIC processor and NIC memory; and main memory that includes a plurality of computer-executable modules, the plurality of computer-executable modules comprising: a list selection module that uses the main processor to select at least one wireless access point identifier for inclusion in a list of wireless access point identifiers, and populates the NIC memory with the list of wireless access point identifiers; and a power management module that powers off the main processor following population of the NIC memory with the list of wireless access point identifiers; characterized in that the list selection module uses a conditional probability algorithm to predict expected directions of travel of the electronic device, and in turn, an expected location of the electronic device, based on previously-connected wireless access points (114, 124) of the electronic device, and in that the list selection module selects, for inclusion in the list, wireless access point identifiers that correspond to the expected location. a main processor; a network interface controller, NIC, that includes a NIC processor and NIC memory; and main memory that includes a plurality of computer-executable modules, the plurality of computer-executable modules comprising: a list selection module that uses the main processor to select at least one wireless access point identifier for inclusion in a list of wireless access point identifiers, and populates the NIC memory with the list of wireless access point identifiers; and a power management module that powers off the main processor following population of the NIC memory with the list of wireless access point identifiers; a list selection module that uses the main processor to select at least one wireless access point identifier for inclusion in a list of wireless access point identifiers, and populates the NIC memory with the list of wireless access point identifiers; and a power management module that powers off the main processor following population of the NIC memory with the list of wireless access point identifiers; characterized in that the list selection module uses a conditional probability algorithm to predict expected directions of travel of the electronic device, and in turn, an expected location of the electronic device, based on previously-connected wireless access points (114, 124) of the electronic device, and in that the list selection module selects, for inclusion in the list, wireless access point identifiers that correspond to the expected location.
A facility for producing electrical energy and/or heat energy by exploiting biomass and solar energy, comprising an enclosure for storing a heat-transfer fluid in the heat-transfer liquid state and fluid vapour, the enclosure being equipped with a primary loop for circulation of the heat-transfer fluid which is connected to a main device for generating fluid vapour comprising solar panels and tubes, and the enclosure being equipped with a main circuit for circulation of the heat-transfer fluid, which comprises a superheater housed in a boiler and a steam machine, the facility further comprising an auxiliary device for generating fluid vapour, the auxiliary device comprising a gasifier capable of producing a synthesis gas from the biomass, the synthesis gas being a fuel of the boiler, and the fluid vapour that leaves the storage enclosure being heated inside the boiler by means of the superheater, characterised in that the enclosure for storing the heat-transfer fluid is unique, and in that the boiler houses a shutter which is movable between, on the one hand, a closure position in which the shutter directs most of the combustion gases into a bypass channel provided with a heat exchanger and, on the other hand, an opening position in which most of the combustion gases transit in the boiler, without passing through said channel, the heat exchanger belonging to a secondary loop for the circulation of the heat-transfer fluid, the secondary loop connecting a lower area for storing the heat-transfer liquid and an upper area for storing the fluid vapour.
Apparatus, designed and configured for stunning live poultry animals which are intended for slaughter and are located in containers, by means of a gas mixture comprising a stunning gas, which apparatus comprises a stunning chamber having at least two stunning zones, an introduction station, arranged on the inlet side of the stunning chamber, for each container containing live poultry animals and a discharge station, arranged on the outlet side of the stunning chamber, for each container containing stunned poultry animals, at least one transport conveyor for transporting each container in the transport direction T through the stunning zones from the introduction station to the discharge station, as well as means for delivering the gas mixture into the stunning zones of the stunning chamber, characterised in that the means for delivering the gas mixture comprises at least one injection pipe which is designed and configured to be movable relative to the container for detachable connection to each container and for detachment therefrom, in such a manner that each container can be filled with the gas mixture when it is in the state of detachable connection to the or each injection pipe, wherein each injection pipe is designed and configured to move into the interior of each container forming a container stack and to move out of each container, in such a manner that each container of the container stack, with the poultry animals located therein, can be filled with the gas mixture flowing out of the or each injection pipe individually and directed from the inside, wherein the or each injection pipe is arranged above the transport path and is designed to be movable vertically up and down, in such a manner that the injection pipe can be moved from an upper waiting position, in which the injection pipe is positioned with its free end completely outside the container of a container stack located beneath the injection pipe that is closest to the injection pipe, into a lower working position, in which the injection pipe is positioned with its free end inside any container of the container stack, and back.
A method for continuously obtaining a refined wheat flour, which comprises the steps of: (a) supplying a quantity of conditioned wheat grain; (b) fractionating the wheat grain to obtain endosperm, bran, and germ; (c) separating and distributing the endosperm, bran, and germ to allow them to be treated; (d) milling the endosperm that is obtained in step (c) in order to homogenize the particle size of 150-180 microns; (e) treating the germ using heat in order to reduce the reactivity of the lipids contained therein; (f) treating the bran obtained in step (c) by: (f-i) separating the stream of bran coming from step (c) in order to produce a fine bran of a particle diameter of 200 microns, and a coarse bran, and (f-ii) milling the coarse bran from step (f-i) in order to obtain a pulverized bran with a particle diameter of 180 microns; (g) mixing the endosperm from step (d), the germ from step (e), the fine bran from step (f-i), and the pulverized bran from step (f-ii) in order to obtain a whitish whole-wheat flour that consists of 80.0% endosperm, 17.5% bran, and 2.5% germ. (a) supplying a quantity of conditioned wheat grain; (b) fractionating the wheat grain to obtain endosperm, bran, and germ; (c) separating and distributing the endosperm, bran, and germ to allow them to be treated; (d) milling the endosperm that is obtained in step (c) in order to homogenize the particle size of 150-180 microns; (e) treating the germ using heat in order to reduce the reactivity of the lipids contained therein; (f) treating the bran obtained in step (c) by: (f-i) separating the stream of bran coming from step (c) in order to produce a fine bran of a particle diameter of 200 microns, and a coarse bran, and (f-ii) milling the coarse bran from step (f-i) in order to obtain a pulverized bran with a particle diameter of 180 microns; (f-i) separating the stream of bran coming from step (c) in order to produce a fine bran of a particle diameter of 200 microns, and a coarse bran, and (f-ii) milling the coarse bran from step (f-i) in order to obtain a pulverized bran with a particle diameter of 180 microns; (g) mixing the endosperm from step (d), the germ from step (e), the fine bran from step (f-i), and the pulverized bran from step (f-ii) in order to obtain a whitish whole-wheat flour that consists of 80.0% endosperm, 17.5% bran, and 2.5% germ.
System for drying of exhaust gases from a fuel cell system, comprising - at least one first heat exchanger; - at least one second heat exchanger; - a common exhaust gas inlet and a common exhaust gas outlet; - a common coolant inlet and a common coolant outlet; - a common air outlet; - a valve arrangement with a multitude of valves and - at least one condensate extractor (18, 42) for extracting condensate; wherein the valve arrangement is adapted for operating either the first heat exchanger or the second heat exchanger in an icing phase and for operating the respective other heat exchanger in a regeneration phase, wherein the valve arrangement is adapted for letting a part of an exhaust gas that flows into the common exhaust inlet and that flows out of the common exhaust outlet and a part of a coolant that flows into the common coolant inlet and out of the common coolant outlet flow through the respective heat exchanger for icing the vapor present in the exhaust gas during the icing phase, wherein the valve arrangement is adapted for letting a part of the exhaust gas from the common exhaust gas inlet flow to the common air outlet through the respective heat exchanger and thereby thaw the accumulated condensate ice and extract it through the condensate exctractor during the regeneration phase. - at least one first heat exchanger; - at least one second heat exchanger; - a common exhaust gas inlet and a common exhaust gas outlet; - a common coolant inlet and a common coolant outlet; - a common air outlet; - a valve arrangement with a multitude of valves and - at least one condensate extractor (18, 42) for extracting condensate;
A thermal energy storage unit based on solid-liquid phase-change materials, the unit using a solid-liquid phase-change material and at least one preferably liquid heat carrier fluid, for the stored thermal energy to be conveyed and reused in other processes, comprising: - a parallelepipedal casing; - solid-liquid phase-change material encapsulated in plates, said plates being arranged inside said casing determining a heat carrier fluid circuit; - at least two manifolds connected to the casing which ensure proper distribution of the heat carrier fluid; characterized in that - a plurality of U-shaped holders are arranged in parallel and attached to the casing, but alternately pointing in opposite directions, - each plate is supported on and attached to one U-shaped holder, and is shorter than the casing, leaving a gap through which the heat carrier fluid flows; - successive plates are misaligned generating said heat carrier fluid circuit in the shape of one coil with no branching. - a parallelepipedal casing; - solid-liquid phase-change material encapsulated in plates, said plates being arranged inside said casing determining a heat carrier fluid circuit; - at least two manifolds connected to the casing which ensure proper distribution of the heat carrier fluid; - a plurality of U-shaped holders are arranged in parallel and attached to the casing, but alternately pointing in opposite directions, - each plate is supported on and attached to one U-shaped holder, and is shorter than the casing, leaving a gap through which the heat carrier fluid flows; - successive plates are misaligned generating said heat carrier fluid circuit in the shape of one coil with no branching.
A stable liquid composition comprising: - chlorhexidine digluconate, - a dye of formula in the form of a pharmaceutically acceptable salt: wherein R 1, R 2, R 3, R 4, identical or different, each independently represent a hydrogen atom or a chlorine atom, - water, - and at least one alcohol selected from ethanol, n-propanol and isopropanol, said composition comprising from 0.4 to 2.5% w/v, in relation to the total volume of the composition, of chlorhexidine digluconate and from 0.01 to 0.06% w/v, in relation to the total volume of the composition, of a pharmaceutically acceptable salt of the dye of formula. - chlorhexidine digluconate, - a dye of formula in the form of a pharmaceutically acceptable salt: wherein R 1, R 2, R 3, R 4, identical or different, each independently represent a hydrogen atom or a chlorine atom, - water, - and at least one alcohol selected from ethanol, n-propanol and isopropanol,
A method comprising: displaying a content selection icon (730,740) on a touch-sensitive display of an electronic device; detecting touch input at a touch location on the touch-sensitive display operable to select a content selection function associated with the content selection icon (730,740); modifying the displayed content selection icon (730,740) to display a touch portion at a location on the touch-sensitive display corresponding to said detected touch location and a content selection portion operatively coupled to, but spatially separated from, the touch portion; and, displacing the entire content (710,711,712) displayed on the touch-sensitive display relative to a display location of the content selection icon (730,740). displaying a content selection icon (730,740) on a touch-sensitive display of an electronic device; detecting touch input at a touch location on the touch-sensitive display operable to select a content selection function associated with the content selection icon (730,740); modifying the displayed content selection icon (730,740) to display a touch portion at a location on the touch-sensitive display corresponding to said detected touch location and a content selection portion operatively coupled to, but spatially separated from, the touch portion; and, displacing the entire content (710,711,712) displayed on the touch-sensitive display relative to a display location of the content selection icon (730,740).
A service steering and control function, SSF, including: means for receiving a service steering and control, SSC, rule, the SSC rule to include an SSC rule identifier, a service dataflow, SDF, identifier, and one or more service enabler, SE, identifiers; means for identifying a service dataflow, SDF, based on the SDF identifier within an operator network; means for routing the SDF through one or more service enablers (136, 140, 144) in a Gi-LAN based on the one or more SE identifiers, wherein routing the SDF through one or more service enablers includes causing the SDF to be transmitted through a chain of a plurality of service enablers in an order defined by the SSC rule; characterised by further including means for collecting dynamic load status information from individual service enablers of the one or more service enablers; and means for transmitting the dynamic load status information to a policy and charging rules function, PCRF. means for receiving a service steering and control, SSC, rule, the SSC rule to include an SSC rule identifier, a service dataflow, SDF, identifier, and one or more service enabler, SE, identifiers; means for identifying a service dataflow, SDF, based on the SDF identifier within an operator network; means for routing the SDF through one or more service enablers (136, 140, 144) in a Gi-LAN based on the one or more SE identifiers, wherein routing the SDF through one or more service enablers includes causing the SDF to be transmitted through a chain of a plurality of service enablers in an order defined by the SSC rule; characterised by further including means for collecting dynamic load status information from individual service enablers of the one or more service enablers; and means for transmitting the dynamic load status information to a policy and charging rules function, PCRF.
A mixed turf disposed on a soil and comprising: a synthetic turf, natural grass disposed inside said synthetic turf, said synthetic turf comprising synthetic filaments adapted to simulate grass blades and a support consisting of a non-biodegradable membrane sustaining said synthetic filaments, said mixed turf being characterised in that: said support comprises at least one geonet of polyester and at least one geotextile of non-woven fabric of polyester and it is on the whole, substantially draining and transpiring, said features of the support resulting from its microscopic features, and allows passage therethrough of the root system of said natural grass.
A method of manufacturing a vacuum device (111, 250), wherein the vacuum device (111, 250) has a device component, in particular a pump component, a control apparatus, in particular a drive device, for the device component, and an interface for connecting the control apparatus to the device component, wherein the control apparatus is configured to control the device component on the basis of at least a first configuration parameter and a second configuration parameter; wherein the manufacturing method comprises that a permanent hardware identifier is provided at the device component and the control apparatus is configured to recognize the hardware identifier and to define the first configuration parameter on the basis of the hardware identifier, and that a software identifier is provided at the device component in a non-volatile memory and the control apparatus is configured to recognize the software identifier and to define the second configuration parameter on the basis of the software identifier so that both the first and the second configuration parameter can be automatically defined by the control device in the state connected to the device component. wherein the vacuum device (111, 250) has a device component, in particular a pump component, a control apparatus, in particular a drive device, for the device component, and an interface for connecting the control apparatus to the device component, wherein the control apparatus is configured to control the device component on the basis of at least a first configuration parameter and a second configuration parameter; wherein the manufacturing method comprises that a permanent hardware identifier is provided at the device component and the control apparatus is configured to recognize the hardware identifier and to define the first configuration parameter on the basis of the hardware identifier, and that a software identifier is provided at the device component in a non-volatile memory and the control apparatus is configured to recognize the software identifier and to define the second configuration parameter on the basis of the software identifier so that both the first and the second configuration parameter can be automatically defined by the control device in the state connected to the device component.