mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a multi-universal subscriber identity module, MUSIM, user equipment, UE, with a first USIM and a second USIM in a wireless communication system, the method comprising: registering to a first network based on subscription information in the first USIM; registering to a second network based on subscription information in the second USIM; establishing a connection with the first network; transmitting, to the first network, gap information related to one or more gaps requested by the MUSIM UE and priority information related to the one or more gaps, wherein the one or more gaps comprise a time period during which the MUSIM UE pauses the connection with the first network for performing operations in the second network; receiving, from the first network, a configuration of at least one gap after transmitting the priority information to the first network; and performing operations in the second network during the at least one gap, wherein the gap information comprises a list of gap information related to each gap, wherein the gap information related to each gap comprises at least one of a gap pattern for a corresponding gap, or a gap time offset for the corresponding gap, and wherein priority information for each gap is informed by an order of gap information related to the corresponding gap in the list with a highest priority ordered first in the list. registering to a first network based on subscription information in the first USIM; registering to a second network based on subscription information in the second USIM; establishing a connection with the first network; transmitting, to the first network, gap information related to one or more gaps requested by the MUSIM UE and priority information related to the one or more gaps, wherein the one or more gaps comprise a time period during which the MUSIM UE pauses the connection with the first network for performing operations in the second network; receiving, from the first network, a configuration of at least one gap after transmitting the priority information to the first network; and performing operations in the second network during the at least one gap, wherein the gap information comprises a list of gap information related to each gap, wherein the gap information related to each gap comprises at least one of a gap pattern for a corresponding gap, or a gap time offset for the corresponding gap, and wherein priority information for each gap is informed by an order of gap information related to the corresponding gap in the list with a highest priority ordered first in the list.
A magnetic core comprising: a nanocrystalline alloy ribbon having a composition represented by Fe 100-x-y-z-a-b-impurities Cu x B y Si z A a X b, where 0.6 at.%≤x<1.2 at.%, 10 at.%≤y≤20 at.%, 0 at.%<z≤10 at.%, 10 at. %≤(y+z)≤24 at.%, and 0 at. %≤a≤10 at.%, 0 at. %≤b≤5 at.%, at.% being atomic percent, with the impurities being an amount of incidental impurities in at.%, and where A is an optional inclusion of at least one element selected from Ni, Mn, Co, V, Cr, Ti, Zr, Nb, Mo, Hf, Ta, W, P, C, Au and Ag, X is an optional inclusion of at least one element selected from Re, Y, Zn, As, In, and rare earth elements, and a collective content of Ti, Zr, Nb, Mo, Hf, Ta and W in the composition is below 0.4 atomic percent, the nanocrystalline alloy ribbon having a local structure including nanocrystals with average particle sizes of less than 40 nm dispersed in an amorphous matrix and are occupying more than 30 volume percent of the nanocrystalline alloy ribbon, and the magnetic core having a coercivity of less than 4 A/m when measured by a B-H loop tracer. a nanocrystalline alloy ribbon having a composition represented by Fe 100-x-y-z-a-b-impurities Cu x B y Si z A a X b, where 0.6 at.%≤x<1.2 at.%, 10 at.%≤y≤20 at.%, 0 at.%<z≤10 at.%, 10 at. %≤(y+z)≤24 at.%, and 0 at. %≤a≤10 at.%, 0 at. %≤b≤5 at.%, at.% being atomic percent, with the impurities being an amount of incidental impurities in at.%, and where A is an optional inclusion of at least one element selected from Ni, Mn, Co, V, Cr, Ti, Zr, Nb, Mo, Hf, Ta, W, P, C, Au and Ag, X is an optional inclusion of at least one element selected from Re, Y, Zn, As, In, and rare earth elements, and a collective content of Ti, Zr, Nb, Mo, Hf, Ta and W in the composition is below 0.4 atomic percent, the nanocrystalline alloy ribbon having a local structure including nanocrystals with average particle sizes of less than 40 nm dispersed in an amorphous matrix and are occupying more than 30 volume percent of the nanocrystalline alloy ribbon, and the magnetic core having a coercivity of less than 4 A/m when measured by a B-H loop tracer.
Apparatus for monitoring a hot water tank of a hot water heating system, comprising: at least two tank temperature sensors for sensing the temperature at at least two different tank heights and generating respective sensor signals in response to the sensed temperatures; a processing arrangement configured to receive the tank sensor signals, determine therefrom a hot water level parameter value which is indicative of the proportion of the total volume of water in the tank which is above a predetermined temperature threshold, and output the hot water level parameter value; and an electronic memory for receiving and storing the hot water level parameter value, wherein the processing arrangement is arranged to calculate the volume of hot water usage against time with reference to the tank sensor signals, and wherein the processing arrangement is configured to calculate the volume of hot water usage in a predetermined period during a repeating usage cycle, and determine when the water in the tank should be heated such that said volume of hot water is provided during the predetermined period. at least two tank temperature sensors for sensing the temperature at at least two different tank heights and generating respective sensor signals in response to the sensed temperatures; a processing arrangement configured to receive the tank sensor signals, determine therefrom a hot water level parameter value which is indicative of the proportion of the total volume of water in the tank which is above a predetermined temperature threshold, and output the hot water level parameter value; and an electronic memory for receiving and storing the hot water level parameter value, wherein the processing arrangement is arranged to calculate the volume of hot water usage against time with reference to the tank sensor signals, and wherein the processing arrangement is configured to calculate the volume of hot water usage in a predetermined period during a repeating usage cycle, and determine when the water in the tank should be heated such that said volume of hot water is provided during the predetermined period.
A method of characterizing a hydrocarbon reservoir in a subterranean formation, the method comprising: a) measuring a poromechanic pressure change due to lithostatic load sharing using pressure gauges (X, Y, Z) installed in separate offset wells, different sections of a single well, or combinations of vertical and horizontal wells, or a combination of producing and monitoring wells; b) mapping the poromechanic pressure change to one or more locations of the pressure gauges (X, Y, Z) in the subterranean formation; and c) identifying one or more local pressure peaks in the poromechanic pressure change, wherein the one or more local pressure peaks are each marked by a pressure escalation and subsequent pressure depletion; characterized in that the method comprises: d) determining a drained reservoir volume in the hydrocarbon reservoir based on the pressure escalation wherein the drained reservoir volume is the portion of the total reservoir that is contacted by or adjacent to hydraulic fracture stimulation from a well. a) measuring a poromechanic pressure change due to lithostatic load sharing using pressure gauges (X, Y, Z) installed in separate offset wells, different sections of a single well, or combinations of vertical and horizontal wells, or a combination of producing and monitoring wells; b) mapping the poromechanic pressure change to one or more locations of the pressure gauges (X, Y, Z) in the subterranean formation; and c) identifying one or more local pressure peaks in the poromechanic pressure change, wherein the one or more local pressure peaks are each marked by a pressure escalation and subsequent pressure depletion;
A main rotor assembly for a rotary wing aircraft comprising: a blade assembly secured to a rotor hub including: a rotor blade a slat positioned to define a slat gap between the rotor blade and the slat; one or more struts extending from the rotor blade to the slat to position the slat and to control motion of the slat; characterised in that the rotor blade and the slat are secured to a common rotor cuff such that the rotor cuff acts as a centrifugal force support. a blade assembly secured to a rotor hub including: a rotor blade a slat positioned to define a slat gap between the rotor blade and the slat; one or more struts extending from the rotor blade to the slat to position the slat and to control motion of the slat; characterised in that the rotor blade and the slat are secured to a common rotor cuff such that the rotor cuff acts as a centrifugal force support. a rotor blade a slat positioned to define a slat gap between the rotor blade and the slat; one or more struts extending from the rotor blade to the slat to position the slat and to control motion of the slat; characterised in that the rotor blade and the slat are secured to a common rotor cuff such that the rotor cuff acts as a centrifugal force support.
A method for providing a Cooperative Intelligent Transport Systems, C-ITS, service through a distribution server for geographically targeted message distribution to a client, the method comprising: an interworking device connecting to the distribution server; the interworking device connecting via an ad-hoc network connection to the client; on behalf of the client, the interworking device performing registration for the C-ITS service at the distribution server; and on the basis of the registration, the interworking device forwarding at least one C-ITS message of the C-ITS service between the distribution server and the client. an interworking device connecting to the distribution server; the interworking device connecting via an ad-hoc network connection to the client; on behalf of the client, the interworking device performing registration for the C-ITS service at the distribution server; and on the basis of the registration, the interworking device forwarding at least one C-ITS message of the C-ITS service between the distribution server and the client.
A method for improving accuracy of vehicle position determination, comprising: determining an initial vehicle position estimate based on GPS data, recording a sequence of sensor data from a sensor located within the vehicle, and refining the initial vehicle position estimate by performing pattern matching with a pattern matching system, characterized in that said pattern matching system looks for the presence of the recorded sequence of sensor data in a previously recorded pattern of sensor data from a sensor located within the vehicle and associated with the suspension system of the vehicle, and, the sensor data being Z axis deflection data of a road profile. determining an initial vehicle position estimate based on GPS data, recording a sequence of sensor data from a sensor located within the vehicle, and refining the initial vehicle position estimate by performing pattern matching with a pattern matching system, characterized in that said pattern matching system looks for the presence of the recorded sequence of sensor data in a previously recorded pattern of sensor data from a sensor located within the vehicle and associated with the suspension system of the vehicle, and, the sensor data being Z axis deflection data of a road profile.
A method for isolating one or more proteins from an aqueous protein solution comprising said one or more proteins and impurities, the method comprising; a. providing an aqueous solution containing the one or more proteins and the impurities b. adding a water-soluble silicate to the solution of step a) such that the total concentration of silicon in the form of free or complexed silicates in the solution is in the range of 1-1000 mM, c. if necessary, adjusting the pH of the resulting solution to a pH in the range of pH 1 to pH 11, d. allowing the silicate to form an insoluble precipitate of a silicate-protein complex, e. separating the silicate-protein complex from the solution as a wet precipitate; such as a wet cake or an aqueous suspension of the precipitate, f. optionally washing the silicate-protein complex to further remove said impurities from the silicate-protein complex, g. separating the one or more proteins from the silicate, wherein the separation in step g) is done by; - raising the pH to more than 7, or - raising pH to a pH of more than 10 to solubilize the silicate-protein complex allowing the silicate to be separated from the protein by a method selected from the group consisting of membrane filtration, selective silicate precipitation with metal-ions, selective precipitation of the protein, adsorption chromatography, selective precipitation with metal-ions, chromatography, and/or ultrafiltration, or - lowering pH to below pH 5. thereby obtaining the isolated protein product. a. providing an aqueous solution containing the one or more proteins and the impurities b. adding a water-soluble silicate to the solution of step a) such that the total concentration of silicon in the form of free or complexed silicates in the solution is in the range of 1-1000 mM, c. if necessary, adjusting the pH of the resulting solution to a pH in the range of pH 1 to pH 11, d. allowing the silicate to form an insoluble precipitate of a silicate-protein complex, e. separating the silicate-protein complex from the solution as a wet precipitate; such as a wet cake or an aqueous suspension of the precipitate, f. optionally washing the silicate-protein complex to further remove said impurities from the silicate-protein complex, g. separating the one or more proteins from the silicate, - raising the pH to more than 7, or - raising pH to a pH of more than 10 to solubilize the silicate-protein complex allowing the silicate to be separated from the protein by a method selected from the group consisting of membrane filtration, selective silicate precipitation with metal-ions, selective precipitation of the protein, adsorption chromatography, selective precipitation with metal-ions, chromatography, and/or ultrafiltration, or - lowering pH to below pH 5.
An air conditioner comprising: a control data storage unit adapted to store therein control data for air-conditioning control; a buffer unit adapted to store therein update data (CON') of the control data; a rewriting unit adapted to execute a rewriting process of rewriting the control data stored in the control data storage unit with the update data (CON') stored in the buffer unit; a data reception unit adapted to receive, through a wireless communication, the update data (CON') that is transmitted multiple times from a transmitter; and a reception processing unit which is configured to determine whether or not the rewriting process is in progress at a time when the update data (CON') is received, to discard the received update data (CON') if the rewriting process is in progress, and to store the received update data (CON') in the buffer unit if the rewriting process is not in progress. a control data storage unit adapted to store therein control data for air-conditioning control; a buffer unit adapted to store therein update data (CON') of the control data; a rewriting unit adapted to execute a rewriting process of rewriting the control data stored in the control data storage unit with the update data (CON') stored in the buffer unit; a data reception unit adapted to receive, through a wireless communication, the update data (CON') that is transmitted multiple times from a transmitter; and a reception processing unit which is configured to determine whether or not the rewriting process is in progress at a time when the update data (CON') is received, to discard the received update data (CON') if the rewriting process is in progress, and to store the received update data (CON') in the buffer unit if the rewriting process is not in progress.
A device for performing cataract removal in an eye, the device comprising: a proximal portion for remaining outside the eye; a distal, elongate member coupled to the proximal portion, the distal, elongate member comprising an open distal end and a lumen operatively coupled to a vacuum source; and a drive mechanism operatively coupled to the elongate member and configured to oscillate the elongate member, wherein a distal portion of the elongate member is sized and configured to extend through an anterior chamber of the eye, and further wherein, in use, the device is configured to aspirate lens material from the capsular bag of the eye through the open distal end and into the lumen, wherein in use, the drive mechanism retracts the elongate member in a proximal direction with a retraction speed profile and advances the elongate member in a distal direction with an extension speed profile, and wherein the retraction speed profile comprises a maximum retraction speed of the elongate member, and the extension speed profile comprises a maximum extension speed of the elongate member that is greater than the maximum retraction speed. a proximal portion for remaining outside the eye; a distal, elongate member coupled to the proximal portion, the distal, elongate member comprising an open distal end and a lumen operatively coupled to a vacuum source; and a drive mechanism operatively coupled to the elongate member and configured to oscillate the elongate member, wherein a distal portion of the elongate member is sized and configured to extend through an anterior chamber of the eye, and further wherein, in use, the device is configured to aspirate lens material from the capsular bag of the eye through the open distal end and into the lumen, wherein in use, the drive mechanism retracts the elongate member in a proximal direction with a retraction speed profile and advances the elongate member in a distal direction with an extension speed profile, and wherein the retraction speed profile comprises a maximum retraction speed of the elongate member, and the extension speed profile comprises a maximum extension speed of the elongate member that is greater than the maximum retraction speed.
A method comprising: detecting, by a processing device of a first client computing device, that a first near-field communication device of the first client computing device is in physical proximity of a first near-field communication target device; in response to the detecting, initiating, by the processing device, execution of a transportation vehicle request application having an associated graphical user interface presented by the first client computing device; receiving, by the processing device, data from the first near-field communication target device; generating, by the processing device, an order request for a transportation vehicle based on the transportation vehicle request application and the received data; transmitting, by the processing device, the order request to a transportation server; and receiving, by the processing device, a response from the transportation server indicating acceptance of the order request; and causing, by the processing device, the first client computing device to display, using the graphical user interface, a graphical representation of a relationship between a pick-up location and a location of the transportation vehicle. detecting, by a processing device of a first client computing device, that a first near-field communication device of the first client computing device is in physical proximity of a first near-field communication target device; in response to the detecting, initiating, by the processing device, execution of a transportation vehicle request application having an associated graphical user interface presented by the first client computing device; receiving, by the processing device, data from the first near-field communication target device; generating, by the processing device, an order request for a transportation vehicle based on the transportation vehicle request application and the received data; transmitting, by the processing device, the order request to a transportation server; and receiving, by the processing device, a response from the transportation server indicating acceptance of the order request; and causing, by the processing device, the first client computing device to display, using the graphical user interface, a graphical representation of a relationship between a pick-up location and a location of the transportation vehicle.
A white pigment dispersion, comprising: an aqueous liquid vehicle; and from 5 wt% to 70 wt% of a white metal oxide pigment dispersed by two co-dispersants, wherein the metal oxide pigment has an average particulate size from 100 nm to 1 μm, and wherein the co-dispersants include both i) a short-chain anionic dispersant having a weight average molecular weight ranging from 1,000 Mw to 30,000 Mw, and ii) a non-ionic or predominantly non-ionic dispersant. an aqueous liquid vehicle; and from 5 wt% to 70 wt% of a white metal oxide pigment dispersed by two co-dispersants, wherein the metal oxide pigment has an average particulate size from 100 nm to 1 μm, and wherein the co-dispersants include both i) a short-chain anionic dispersant having a weight average molecular weight ranging from 1,000 Mw to 30,000 Mw, and ii) a non-ionic or predominantly non-ionic dispersant.
A discharge crushing device configured to crush, by pulse discharge, an object to be crushed mounted on a processing target held between upper and lower electrodes, the device comprising: a container holding liquid; the upper electrode and the lower electrode disposed in the liquid in the container; a pulse power source configured to generate pulse discharge by applying a high voltage pulse between the upper electrode and the lower electrode; and characterized by an air bubble generation device configured to generate air bubbles on a lower surface side of the processing target held between the upper and lower electrodes in the liquid so that the object to be crushed is disposed on a lower surface of the processing target, wherein, when the pulse power source applies a high voltage pulse between the upper electrode and the lower electrode, the object to be crushed is crushed by shock wave due to collapsing and disappearing of air bubbles generated by the pulse discharge, the air bubbles existing on the lower surface side of the processing target. a container holding liquid; the upper electrode and the lower electrode disposed in the liquid in the container; a pulse power source configured to generate pulse discharge by applying a high voltage pulse between the upper electrode and the lower electrode; and characterized by an air bubble generation device configured to generate air bubbles on a lower surface side of the processing target held between the upper and lower electrodes in the liquid so that the object to be crushed is disposed on a lower surface of the processing target, wherein, when the pulse power source applies a high voltage pulse between the upper electrode and the lower electrode, the object to be crushed is crushed by shock wave due to collapsing and disappearing of air bubbles generated by the pulse discharge, the air bubbles existing on the lower surface side of the processing target.