mhurhangee/ep-ind-claims huggingface dataset:
Mixing machine, comprising a mixing head, equipped with one or a plurality of elements for connecting the same to a container containing a mixture for configuring a closed mixing vessel containing the mixture, which mixing head is mounted so as to be able to pivot relative to a frame in such a way that the mixing vessel formed from the mixing head and the container can be pivoted for carrying out the mixing process, further comprising a first rotationally driven tool (13, 13.1) carried by the mixing head and clearing the floor of the mixing head to generate a low-energy delivery flow for feeding mixture contained in the mixing vessel to at least one second tool carried by the mixing head and holding only a fraction of the mixture contained in the mixing vessel with a mixture feeding direction in a direction perpendicular to the mixture movement generated by the first tool (13, 13.1), the at least one second tool being responsible for the step of mixing and being located within the movement path of the floor-clearing first tool (13, 13.1), characterised in that the at least one first tool (13,13.1) is paddle-like in configuration and in the direction of rotation of the tool (13,13.1) is set with its edge that points in the direction of rotation radially outward, and in that the first tool (13, 13.1) comprises a first paddle section (16, 16.1) that is nearer to the floor, a contiguous second wall-clearing paddle section and a recess which is open to its termination farther away from the wall, and through which recess the second tool is guided when the first tool (13, 13.1) is rotated.
Arthrospira maxima extract (AM extract), comprising at least 25% (wt%) of total sugar in the AM extract, said AM extract comprising at least 60% (wt%) of neutral and/or positively charged polysaccharides based on the total sugar in the extract, and at least 30 mol% of rhamnose, wherein the most abundant glycosyl linkage is 3-rhap.
A heating device comprising: a wearable layer conformable to a part of a user's body; a heat source attached to the wearable layer for applying heat to a region of a user's body, the heat source configured to heat the region of the user's body to between 43°C and 50°C; a blood flow sensor attached to the wearable layer configured to detect a parameter indicative of blood flow in or adjacent to the region of the user's body and generate a signal indicative thereof; and one or both of: (i) a processor in electrical communication with the blood flow sensor for determining the blood flow in or adjacent to the region of the user's body based upon the signal; or (ii) a transmitter for transmitting the signal to a remote device. a wearable layer conformable to a part of a user's body; a heat source attached to the wearable layer for applying heat to a region of a user's body, the heat source configured to heat the region of the user's body to between 43°C and 50°C; a blood flow sensor attached to the wearable layer configured to detect a parameter indicative of blood flow in or adjacent to the region of the user's body and generate a signal indicative thereof; and one or both of: (i) a processor in electrical communication with the blood flow sensor for determining the blood flow in or adjacent to the region of the user's body based upon the signal; or (ii) a transmitter for transmitting the signal to a remote device. (i) a processor in electrical communication with the blood flow sensor for determining the blood flow in or adjacent to the region of the user's body based upon the signal; or (ii) a transmitter for transmitting the signal to a remote device.
A system comprising: at least one processing unit; and a background transfer service implemented on the at least one processing unit and configured to run on a mobile device at a platform-level to control all data transfers of a plurality of background applications, the data transfers comprising data transfers from a first background application and a second background application, the at least one processing unit programmed to: manage application requests for the data transfers based upon one or more policies that control resource usage of background application data transfers to limit interference with foreground application operations, wherein the one or more policies comprise one or more of the following: a maximum number of outstanding transfers at a time, a data sized-based limitation, a connection rule, a bandwidth limitation, and one or more conditions comprising: other application data transfer requests, available cellular service, Wi-Fi availability, desktop pass-through availability, power state, battery power level, and a charging state; prioritize a first data transfer for the first background application over a second data transfer for the second background application; generate one or more notifications associated with the data transfers current progress; and provide the one or more notifications to the plurality of applications that requested the data transfers. at least one processing unit; and a background transfer service implemented on the at least one processing unit and configured to run on a mobile device at a platform-level to control all data transfers of a plurality of background applications, the data transfers comprising data transfers from a first background application and a second background application, the at least one processing unit programmed to: manage application requests for the data transfers based upon one or more policies that control resource usage of background application data transfers to limit interference with foreground application operations, wherein the one or more policies comprise one or more of the following: a maximum number of outstanding transfers at a time, a data sized-based limitation, a connection rule, a bandwidth limitation, and one or more conditions comprising: other application data transfer requests, available cellular service, Wi-Fi availability, desktop pass-through availability, power state, battery power level, and a charging state; prioritize a first data transfer for the first background application over a second data transfer for the second background application; generate one or more notifications associated with the data transfers current progress; and provide the one or more notifications to the plurality of applications that requested the data transfers.
A process of fractionation of a suspension chosen from a microalgal biomass or milk, comprising the following steps: a) contacting the suspension with a solvent consisting in supercritical CO 2 in a contactor, the suspension and the supercritical CO 2 being introduced in a counter current mode, b) continuously recovering a supercritical CO 2 rich phase exiting from the top of the contactor, after its contacting with the suspension, the supercritical CO 2 rich phase containing lipids extracted from the suspension, and a raffinate exiting from the bottom of the contactor, c) continuously separating the neutral lipids and/or the compounds of interest contained in the supercritical CO 2 rich phase, and the raffinate, d) the process comprising no step of disrupting the cells of the algal biomass before step a) is carried out. a) contacting the suspension with a solvent consisting in supercritical CO 2 in a contactor, the suspension and the supercritical CO 2 being introduced in a counter current mode, b) continuously recovering a supercritical CO 2 rich phase exiting from the top of the contactor, after its contacting with the suspension, the supercritical CO 2 rich phase containing lipids extracted from the suspension, and a raffinate exiting from the bottom of the contactor, c) continuously separating the neutral lipids and/or the compounds of interest contained in the supercritical CO 2 rich phase, and the raffinate, d) the process comprising no step of disrupting the cells of the algal biomass before step a) is carried out.
An apparatus comprising: a processor; a memory in electronic communication with the processor; and instructions stored in the memory, the instructions being executable by the processor to: receive a diagnostic response; identify a diagnostic request corresponding to the diagnostic response, based at least in part on a comparison of a first protocol data unit,PDU, identifier associated with the diagnostic request and a second PDU identifier associated with the diagnostic response; route the diagnostic response to a diagnostic client (112, 116) associated with the diagnostic request, and identify a routing path between a diagnostic target and the diagnostic client (112, 116) based at least in part on the first PDU identifier and the second PDU identifier, wherein the routing path is associated with the diagnostic request, wherein routing the diagnostic response to the diagnostic client (112, 116) comprises transmitting the diagnostic response to the diagnostic client (112, 116) based at least in part on the routing path. a processor; a memory in electronic communication with the processor; and instructions stored in the memory, the instructions being executable by the processor to: receive a diagnostic response; identify a diagnostic request corresponding to the diagnostic response, based at least in part on a comparison of a first protocol data unit,PDU, identifier associated with the diagnostic request and a second PDU identifier associated with the diagnostic response; route the diagnostic response to a diagnostic client (112, 116) associated with the diagnostic request, and identify a routing path between a diagnostic target and the diagnostic client (112, 116) based at least in part on the first PDU identifier and the second PDU identifier, wherein the routing path is associated with the diagnostic request, wherein routing the diagnostic response to the diagnostic client (112, 116) comprises transmitting the diagnostic response to the diagnostic client (112, 116) based at least in part on the routing path. receive a diagnostic response; identify a diagnostic request corresponding to the diagnostic response, based at least in part on a comparison of a first protocol data unit,PDU, identifier associated with the diagnostic request and a second PDU identifier associated with the diagnostic response; route the diagnostic response to a diagnostic client (112, 116) associated with the diagnostic request, and identify a routing path between a diagnostic target and the diagnostic client (112, 116) based at least in part on the first PDU identifier and the second PDU identifier, wherein the routing path is associated with the diagnostic request, wherein routing the diagnostic response to the diagnostic client (112, 116) comprises transmitting the diagnostic response to the diagnostic client (112, 116) based at least in part on the routing path.
A sled test apparatus for simulating a vehicle crash, the apparatus having a sled carriage and a test buck, the sled carriage being mounted for linear movement along a test axis, and the test buck including a first structure mounted to the carriage for guided movement relative to the carriage, and a second structure fixedly mounted to the carriage, and wherein the first structure is configured to move relative to the second structure during said guided movement; the apparatus being characterised in that the first structure is pivotally mounted to the carriage for pivotally guided movement relative to the carriage about a vertical pivot axis.
A housing for electronic devices comprising: a main body that includes a bottom portion and a side wall rising from the bottom portion; a lid member that is mounted on said main body such that an outer peripheral edge of the lid member is located within the side wall of said main body with almost no gap therebetween; a waterproof sealant that is deposited between said lid member and an inner surface of the side wall of said main body to seal the gap between said lid member and said main body; and an operation section that is provided on said lid member, wherein a peripheral edge of said operation section and a surface of said lid member are joined together with a waterproof tape. a main body that includes a bottom portion and a side wall rising from the bottom portion; a lid member that is mounted on said main body such that an outer peripheral edge of the lid member is located within the side wall of said main body with almost no gap therebetween; a waterproof sealant that is deposited between said lid member and an inner surface of the side wall of said main body to seal the gap between said lid member and said main body; and an operation section that is provided on said lid member,
An electric power system monitoring device that is configured to monitor an electric power system state, comprising: a storage unit that is configured to store facility information indicating a position relationship of a plurality of measurement sites in the electric power system; and a reception unit that is configured to receive time-series measurement information measured by a measurement device disposed at each of the plurality of measurement sites; characterized by a computation unit that is configured to acquire an electrical distance between the plurality of measurement sites on the basis of the facility information, to classify the plurality of measurement sites into at least one measurement site group on the basis of the electrical distance, to extract a frequency component of electric power fluctuation from the measurement information with respect to each of the measurement sites in the measurement site group, to select a second frequency component which is a frequency component of a second measurement site in the measurement site group with respect to a first frequency component which is a frequency component of a first measurement site in the measurement site group, and to calculate a similarity between the first frequency component and the second frequency component. a storage unit that is configured to store facility information indicating a position relationship of a plurality of measurement sites in the electric power system; and a reception unit that is configured to receive time-series measurement information measured by a measurement device disposed at each of the plurality of measurement sites; characterized by a computation unit that is configured to acquire an electrical distance between the plurality of measurement sites on the basis of the facility information, to classify the plurality of measurement sites into at least one measurement site group on the basis of the electrical distance, to extract a frequency component of electric power fluctuation from the measurement information with respect to each of the measurement sites in the measurement site group, to select a second frequency component which is a frequency component of a second measurement site in the measurement site group with respect to a first frequency component which is a frequency component of a first measurement site in the measurement site group, and to calculate a similarity between the first frequency component and the second frequency component.
An axial compressor comprising: a rotor as a rotational shaft; a plurality of rotor blades mounted on the rotor; a compressor casing that covers the rotor and the rotor blades; and a plurality of stator vanes mounted on the compressor casing, the rotor blades and the stator vanes being each disposed in a circumferential direction of the rotational shaft to form a rotor-blade cascade and a stator-vane cascade, respectively; the rotor-blade cascade and the stator-vane cascade being arranged in plural rows, respectively, in an axial direction of the rotational shaft; wherein the stator vane has a dovetail as a base for supporting a vane section, the compressor casing has at least one dovetail groove extending in the circumferential direction of the rotational shaft, the dovetail groove receiving the dovetail inserted therein to fix the stator vanes, two or more stator vanes are fixed in the one dovetail groove, the stator vanes belonging to stator vane cascades different from each other, characterized in that: the dovetails are disposed in the one dovetail groove in the axial direction of the rotational shaft, the dovetails juxtaposed in the axial direction of the rotational shaft have dovetail keyways formed in respective side surfaces thereof, the side surfaces facing each other, such that the dovetail keyways facing each other, and a dovetail key extending over the two dovetail keyways is inserted in the two dovetail keyways. a rotor as a rotational shaft; a plurality of rotor blades mounted on the rotor; a compressor casing that covers the rotor and the rotor blades; and a plurality of stator vanes mounted on the compressor casing, the rotor blades and the stator vanes being each disposed in a circumferential direction of the rotational shaft to form a rotor-blade cascade and a stator-vane cascade, respectively; the rotor-blade cascade and the stator-vane cascade being arranged in plural rows, respectively, in an axial direction of the rotational shaft; wherein the stator vane has a dovetail as a base for supporting a vane section, the compressor casing has at least one dovetail groove extending in the circumferential direction of the rotational shaft, the dovetail groove receiving the dovetail inserted therein to fix the stator vanes, two or more stator vanes are fixed in the one dovetail groove, the stator vanes belonging to stator vane cascades different from each other, the dovetails are disposed in the one dovetail groove in the axial direction of the rotational shaft, the dovetails juxtaposed in the axial direction of the rotational shaft have dovetail keyways formed in respective side surfaces thereof, the side surfaces facing each other, such that the dovetail keyways facing each other, and a dovetail key extending over the two dovetail keyways is inserted in the two dovetail keyways.
A radio frequency, RF, communication device comprising: an RF spectral sensor configured to sense a dynamically changing RF spectral environment; RF circuitry having at least one settable parameter; and a controller cooperating with the RF spectral sensor and RF circuitry to dynamically set the at least one settable parameter thereby affecting power consumption and RF communication performance by using an artificial intelligence, AI, model based upon the power consumption and the RF communication performance in the dynamically changing RF spectral environment, and wherein the controller is configured to periodically sample the RF spectral sensor; and wherein the AI model includes a plurality of spectral environment classifications. an RF spectral sensor configured to sense a dynamically changing RF spectral environment; RF circuitry having at least one settable parameter; and a controller cooperating with the RF spectral sensor and RF circuitry to dynamically set the at least one settable parameter thereby affecting power consumption and RF communication performance by using an artificial intelligence, AI, model based upon the power consumption and the RF communication performance in the dynamically changing RF spectral environment, and wherein the controller is configured to periodically sample the RF spectral sensor; and wherein the AI model includes a plurality of spectral environment classifications.
A method performed in a wireless transmit/receive unit, WTRU, (102, 202, 402, 601) in communication with at least one eNode-B (401, 602) operating in a frequency band, the method comprising: receiving, by the WTRU, from an eNode-B, configuration information including a plurality of sets of resource elements, REs, wherein each set of REs includes REs for a Channel-State-Information Reference Signal, CSI-RS, configuration; further comprising the steps of: receiving, by the WTRU, from an eNode-B, a measurement request (450, 603) in a Downlink Control Information, DCI, signal, in a subframe, for performing a measurement in the subframe and reporting the measurement, wherein the measurement request indicates at least one set of the plurality of sets of REs to use in the subframe for performing the measurement; performing, by the WTRU, the measurement in the subframe according to the measurement request; and transmitting, by the WTRU, to the eNode-B, a measurement report (490, 605) based on the performed measurement. receiving, by the WTRU, from an eNode-B, a measurement request (450, 603) in a Downlink Control Information, DCI, signal, in a subframe, for performing a measurement in the subframe and reporting the measurement, wherein the measurement request indicates at least one set of the plurality of sets of REs to use in the subframe for performing the measurement; performing, by the WTRU, the measurement in the subframe according to the measurement request; and transmitting, by the WTRU, to the eNode-B, a measurement report (490, 605) based on the performed measurement.
A scoop and funnel utensil for scooping ingredients to dispense through a small opening of a container, the scoop and funnel utensil comprising: a scoop comprising a scoop cavity suitable for scooping up a supply of ingredients; a funnel that fits over the top of the scoop and covers the supply of ingredients, the funnel comprising a funnel opening for dispensing the supply of ingredients and a funnel cavity suitable for holding the ingredients in a manner that releases portions of the supply of ingredients in a steady stream through the funnel opening; and a handle comprising a first panel connected to the scoop and a second panel connected to the funnel, wherein said first panel is longitudinally connected to said second panel by a hinge permitting the first panel and the scoop to rotate in relation to the second panel and the funnel allowing the funnel to fit over the top of the scoop when in a closed position. a scoop comprising a scoop cavity suitable for scooping up a supply of ingredients; a funnel that fits over the top of the scoop and covers the supply of ingredients, the funnel comprising a funnel opening for dispensing the supply of ingredients and a funnel cavity suitable for holding the ingredients in a manner that releases portions of the supply of ingredients in a steady stream through the funnel opening; and a handle comprising a first panel connected to the scoop and a second panel connected to the funnel, wherein said first panel is longitudinally connected to said second panel by a hinge permitting the first panel and the scoop to rotate in relation to the second panel and the funnel allowing the funnel to fit over the top of the scoop when in a closed position.
A heat exchanger comprising: a thermally conductive cylindrical container containing helium; at least one thermally conductive tube coiled circumferentially around the container and connected in a closed loop to at least one superconducting coil heat exchanger and containing gaseous helium, wherein the thermally conductive tubing forms a thermo siphon which circulates the gaseous helium using thermal gradients without moving parts; a cooling column connected to the thermally conductive cylindrical container to receive helium gas therefrom and supply liquid helium thereto; a cryogenic coldhead mounted to the cooling column which condenses helium gas in the cooling column into cold liquid helium. a thermally conductive cylindrical container containing helium; at least one thermally conductive tube coiled circumferentially around the container and connected in a closed loop to at least one superconducting coil heat exchanger and containing gaseous helium, wherein the thermally conductive tubing forms a thermo siphon which circulates the gaseous helium using thermal gradients without moving parts; a cooling column connected to the thermally conductive cylindrical container to receive helium gas therefrom and supply liquid helium thereto; a cryogenic coldhead mounted to the cooling column which condenses helium gas in the cooling column into cold liquid helium.