mhurhangee/patent-ind-claim-en huggingface dataset:
Electronic system for obtaining and analyzing data on online user behavior and other activity having regard to Internet connectable user devices, optionally mobile devices, the system comprising a number of functionally connected server devices comprising processing device for processing instructions and data, memory for storing instructions and other data, and data interface for transferring data, said system being configured to collect data from a plurality of data sources, said collected data being indicative of Internet , content, media, application, and/or device usage, and/or ambient image or audio exposure, comprising individual user-level data acquired from user devices through passive metering, and census-level data indicating behavior and demographic characteristics across the entire population of users, active devices, or measured services, organize the obtained user-level data and census-level data into a, preferably multivalent, categorized data set utilizing an ontological metadata schema , and determine an electronic deliverable based on an integration of the user-level data and census-level data, wherein census-level data is utilized to calibrate user-level data, the deliverable having a dynamically selectable scope in terms of a number of interest factors regarding used devices or online behaviors or ambient image or audio exposure, preferably including application usage, application distribution, content usage, content distribution, application monetization, user demographics, device distribution, device characteristics, device usage, and/or time factors, wherein the system is configured to collect the user-level data from a first user research panel of controlled constitution and having a first number of participants, and a second user research panel with reduced enrollment requirements having regard to data completeness, and preferably also having a greater number of participants, in relation to the first user research panel ; characterized in that the system is further configured to collect user-level data indicative of behavioral or contextual events external to a user device obtained via a sensor of the device, said sensor including a camera or a microphone and further characterised in that the system is further configured to connect to at least one app store or other remote content distribution platform utilizing a crawler or robot logic entity configured, in order to obtain said census-level data, to execute at least one action selected from the group consisting of: emulate a user or user device associated with the platform, apply platform related API (application programming interface), connect to a proxy between the system and the platform, and apply a VPN tunneling technique. individual user-level data acquired from user devices through passive metering, and census-level data indicating behavior and demographic characteristics across the entire population of users, active devices, or measured services,
MR body coil (8, 9; 14; 24) having a supporting surface for support on an object (P) to be examined and an outer side remote from the support side, wherein a plurality of light sources (11-13; 19-22; 25-28) disposed in a predefined arrangement, which in particular comprise a plurality of light-emitting diodes, are fastened to the outer side at a predefined position in each case, characterised in that the MR body coil (8, 9; 14; 24) has at least one driver, which is adapted to operate the light sources (11-13; 19-22; 25-28) to flash in a coded manner by means of a respective binary blink code identifying them in an individual manner.
A journal bearing for a shaft comprising: a joint-less, continuous cylindrical body comprising an inner surface defining a bore to receive the shaft , and an outer surface , wherein a cross-section perpendicular to a bore axis of the joint-less, continuous cylindrical body comprises four angular sectors comprising a load bearing sector , two heat dissipation sectors , and a lubricant reservoir sector , each extending along a length of the joint-less, continuous cylindrical body, wherein the load bearing sector is located along a radial direction of force (F) of the shaft , the lubricant reservoir sector is located opposite to the load bearing sector , and the two heat dissipation sectors neighbor the load bearing sector and the lubricant reservoir sector in both sides, wherein the load bearing sector and the lubricant reservoir sector comprise at least one of a different microstructure, or a different composition than each of neighboring heat dissipation sectors , and wherein an angular span of the load bearing sector is in a range from 15° to 40°, a combined angular span of the two heat dissipation sectors is in a range from 25° to 180°, and an angular span of the lubricant reservoir sector is greater than 90°. a joint-less, continuous cylindrical body comprising an inner surface defining a bore to receive the shaft , and an outer surface , wherein a cross-section perpendicular to a bore axis of the joint-less, continuous cylindrical body comprises four angular sectors comprising a load bearing sector , two heat dissipation sectors , and a lubricant reservoir sector , each extending along a length of the joint-less, continuous cylindrical body, wherein the load bearing sector is located along a radial direction of force (F) of the shaft , the lubricant reservoir sector is located opposite to the load bearing sector , and the two heat dissipation sectors neighbor the load bearing sector and the lubricant reservoir sector in both sides, wherein the load bearing sector and the lubricant reservoir sector comprise at least one of a different microstructure, or a different composition than each of neighboring heat dissipation sectors , and wherein an angular span of the load bearing sector is in a range from 15° to 40°, a combined angular span of the two heat dissipation sectors is in a range from 25° to 180°, and an angular span of the lubricant reservoir sector is greater than 90°.
A method, comprising: receiving a write request from a host device at a memory device; modifying a block of a cache of the memory device to remove cache data; writing, to a flash memory of the memory device, the cache data and corresponding data from the cache as a single write request; characterised by writing first data to the block of the cache based on the received write request; loading the cache with data with the memory device in a first state; receiving a read request from the host device with the memory device in a second state; reading second data from the cache based on the read request; and outputting the second data to the host device. receiving a write request from a host device at a memory device; modifying a block of a cache of the memory device to remove cache data; writing, to a flash memory of the memory device, the cache data and corresponding data from the cache as a single write request; characterised by writing first data to the block of the cache based on the received write request; loading the cache with data with the memory device in a first state; receiving a read request from the host device with the memory device in a second state; reading second data from the cache based on the read request; and outputting the second data to the host device.
A plasma-free composition for platelet preservation comprising an additive solution containing (a) sodium chloride and (b) an acetate compound or a citrate compound or a combination thereof, said composition being characterized in that it further comprises a red blood cell aggregating agent selected from dextran having a molecular weight of 50 kDa or more, polyvinylpyrrolidone having a molecular weight of 40 kDa or more and polyethylene glycol having a molecular weight of 20 kDa or more or a combination thereof.
An arrangement comprising a module for insertion into a housing or for removal from a housing as well as a slide-in compartment for receiving the module, wherein the module is configured as a removable or withdrawable module, which can be reversibly removed from the slide-in compartment , wherein the slide-in-compartment has an interior and comprises a receiving opening , a compartment base and a roof , wherein located at a rear end of the slide-in-compartment is a compartment rear wall , wherein the compartment base and the roof are connected to two side walls , wherein the two side walls and the compartment rear wall and the compartment base of the slide-in compartment in the inserted state of the module respectively form side walls and a rear wall and a base wall of the module, wherein at least one of the side walls has two guide webs , wherein a lower guide web is assigned to or facing the compartment base and an upper guide web is assigned to or facing the roof , wherein said at least one of the side walls is assigned a wall strip on the compartment base side and this at least one side wall is assigned a wall strip on the roof side, wherein the module comprises guide legs which can lie or rest on the guide webs and be prevented from moving up and down, such that a guide web can act as a guide counter-element for the module, and wherein the wall strips are adapted to guide the guide legs laterally, such that a wall strip can also act as guide counter-element for the module, wherein each wall strip of the at least one side wall receives a spring element which extends in the direction of the interior of the slide-in compartment and wherein the spring element is for compensating for lateral tolerance of the module.
A refrigerating cycle device, wherein a compressor for compressing a refrigerant containing HFO-1234yf; a condenser for condensing said refrigerant by heat exchange; expanding means for decompressing the condensed refrigerant; an evaporator for evaporating said refrigerant by heat exchange between said decompressed refrigerant and air; and a molecular sieve adsorbing oxygen and nitrogen, are connected by piping so as to constitute a refrigerant circuit through which the refrigerant containing said HFO-1234yfis circulated characterized in that the molecular sieve is a Zeolite having a pore size > 0.36 nm and < 0.40 nm. a compressor for compressing a refrigerant containing HFO-1234yf; a condenser for condensing said refrigerant by heat exchange; expanding means for decompressing the condensed refrigerant; an evaporator for evaporating said refrigerant by heat exchange between said decompressed refrigerant and air; and a molecular sieve adsorbing oxygen and nitrogen, are connected by piping so as to constitute a refrigerant circuit through which the refrigerant containing said HFO-1234yfis circulated characterized in that the molecular sieve is a Zeolite having a pore size > 0.36 nm and < 0.40 nm.
A hydraulic control device for a vehicle, the vehicle including an engine , and a transmission , the hydraulic control device comprising: a mechanical variable-capacity oil pump driven by the engine , and configured to supply hydraulic pressure to a drive unit of the vehicle; an electronic control unit configured to (i) calculate a target discharge volume of the mechanical variable-capacity oil pump using a plurality of parameters of the transmission , including: a target input torque of the transmission of the vehicle, a target discharge flow volume of the mechanical variable-capacity oil pump and a rotation speed of an input shaft of the vehicle, and (ii) control the mechanical variable-capacity oil pump based on the target discharge volume. a mechanical variable-capacity oil pump driven by the engine , and configured to supply hydraulic pressure to a drive unit of the vehicle; an electronic control unit configured to (i) calculate a target discharge volume of the mechanical variable-capacity oil pump using a plurality of parameters of the transmission , including: a target input torque of the transmission of the vehicle, a target discharge flow volume of the mechanical variable-capacity oil pump and a rotation speed of an input shaft of the vehicle, and (ii) control the mechanical variable-capacity oil pump based on the target discharge volume. (i) calculate a target discharge volume of the mechanical variable-capacity oil pump using a plurality of parameters of the transmission , including: a target input torque of the transmission of the vehicle, a target discharge flow volume of the mechanical variable-capacity oil pump and a rotation speed of an input shaft of the vehicle, and (ii) control the mechanical variable-capacity oil pump based on the target discharge volume.
A process for aging an alcoholic beverage, comprising: (A) filling a first wooden barrel with an unaged alcoholic beverage, the barrel having an outer surface; (B) covering at least 60 percent of the outer surface of the first wooden barrel with a film having an oxygen transmission rate of at least 50 cc/m 2 /day and an ethanol transmission rate of less than 30 g/m 2 /day; (C) aging the unaged alcoholic beverage under ambient conditions while the alcoholic beverage remains in the first wooden barrel surrounded by the film for a time period of at least 1 month, to produce an aged alcoholic beverage, and wherein during aging, the alcoholic beverage acquires or produces at least one flavor component selected from the group consisting of vanillin, guaiacol, syringaldehyde, syringol, eugenol, isoeugenol, cis-β-methyl-γ-octalactone, o-cresol, 2-methoxy-4-methylphenol, 4-methylsyringol, 4-ethylguaiacol, 4-vinylguaiacol, vanillyl methyl ketone, methoxyeugenol, sinapaldehyde, and furfural, so that the aged alcoholic beverage contains the at least one flavor component in an amount of at least 50% relative to an amount of the same flavor component in a control alcoholic beverage aged in a control wooden barrel without any film covering the control barrel during aging. (A) filling a first wooden barrel with an unaged alcoholic beverage, the barrel having an outer surface; (B) covering at least 60 percent of the outer surface of the first wooden barrel with a film having an oxygen transmission rate of at least 50 cc/m 2 /day and an ethanol transmission rate of less than 30 g/m 2 /day; (C) aging the unaged alcoholic beverage under ambient conditions while the alcoholic beverage remains in the first wooden barrel surrounded by the film for a time period of at least 1 month, to produce an aged alcoholic beverage, and wherein during aging, the alcoholic beverage acquires or produces at least one flavor component selected from the group consisting of vanillin, guaiacol, syringaldehyde, syringol, eugenol, isoeugenol, cis-β-methyl-γ-octalactone, o-cresol, 2-methoxy-4-methylphenol, 4-methylsyringol, 4-ethylguaiacol, 4-vinylguaiacol, vanillyl methyl ketone, methoxyeugenol, sinapaldehyde, and furfural, so that the aged alcoholic beverage contains the at least one flavor component in an amount of at least 50% relative to an amount of the same flavor component in a control alcoholic beverage aged in a control wooden barrel without any film covering the control barrel during aging.
A method performed by a source edge enabler server for selecting a target edge application server in an edge computing system for a user equipment, UE, the method comprising: receiving, from an edge enabler client in the UE, information on selection criteria for selecting the target edge application server; determining a need for an application context relocation for an application client in the UE, based on a change in location of the UE or an overload in a source edge application server; identifying the target edge application server selected for the application context relocation based on the information on selection criteria; and transmitting, to the edge enabler client, a notification about the selected target edge application server, wherein the information on the selection criteria includes information indicating that a service continuity is required, application client expected key performance indicators, KPIs, and application client minimum KPIs. receiving, from an edge enabler client in the UE, information on selection criteria for selecting the target edge application server; determining a need for an application context relocation for an application client in the UE, based on a change in location of the UE or an overload in a source edge application server; identifying the target edge application server selected for the application context relocation based on the information on selection criteria; and transmitting, to the edge enabler client, a notification about the selected target edge application server, wherein the information on the selection criteria includes information indicating that a service continuity is required, application client expected key performance indicators, KPIs, and application client minimum KPIs.
Doffer device for a spinning machine having a plurality of spinning stations, for removing full bobbins from spindles of the spinning machine and for placing empty tubes on the spindles, • comprising a plurality of gripping devices which are each assigned to a spinning station and have a rotatable gripping unit ; • wherein the gripping unit comprises a bobbin gripper for gripping the full bobbin and a tube gripper for gripping the empty tube; • wherein the gripping unit is rotatable between a gripping position in which the bobbin can be gripped on the spindle, and a placement position in which the tube can be placed on the spindle, characterized in that • the bobbin gripper has a bobbin receptacle which is open at the bottom and the tube gripper has a tube receptacle which is open at the bottom which can be placed over the bobbin and the tube, respectively, for gripping from above, and • wherein the tube gripper and the bobbin gripper are cylindrical or conical and can be operated pneumatically using a membrane ; and • comprising a rotating device for rotating the gripping units about an axis of rotation (D) wherein the rotating device being designed such that it can rotate two neighboring gripping units with a time lag from one another; and • wherein the rotating device is driven by a toothed belt . • comprising a plurality of gripping devices which are each assigned to a spinning station and have a rotatable gripping unit ; • wherein the gripping unit comprises a bobbin gripper for gripping the full bobbin and a tube gripper for gripping the empty tube; • wherein the gripping unit is rotatable between a gripping position in which the bobbin can be gripped on the spindle, and a placement position in which the tube can be placed on the spindle, characterized in that • the bobbin gripper has a bobbin receptacle which is open at the bottom and the tube gripper has a tube receptacle which is open at the bottom which can be placed over the bobbin and the tube, respectively, for gripping from above, and • wherein the tube gripper and the bobbin gripper are cylindrical or conical and can be operated pneumatically using a membrane ; and • comprising a rotating device for rotating the gripping units about an axis of rotation (D) wherein the rotating device being designed such that it can rotate two neighboring gripping units with a time lag from one another; and • wherein the rotating device is driven by a toothed belt .
A radiant heat absorber comprising: a structure having a first and second opposing surfaces , with the first surface defining a heat absorbing surface having a plurality of cavities and a heat absorbing coating applied to the first surface and residing within the plurality of cavities ; wherein at least some of the cavities have etchings on the first surface . a structure having a first and second opposing surfaces , with the first surface defining a heat absorbing surface having a plurality of cavities and a heat absorbing coating applied to the first surface and residing within the plurality of cavities ; wherein at least some of the cavities have etchings on the first surface .
A method for pre-processing Packet Data Converge Protocol, PDCP, Protocol Data Units, PDUs, prior to receiving an uplink grant, the method comprising: pre-routing, from a PDCP entity to a Radio Link Control, RLC, entity, a set of PDCP PDUs, of a radio bearer; assigning an RLC header to a PDCP PDU of the set of PDCP PDUs to form an RLC PDU; discarding , at the RLC entity, the PDCP PDU which was assigned the RLC header; and reassigning a sequence number for another RLC PDU subsequent to the RLC PDU formed from the discarded PDCP PDU. pre-routing, from a PDCP entity to a Radio Link Control, RLC, entity, a set of PDCP PDUs, of a radio bearer; assigning an RLC header to a PDCP PDU of the set of PDCP PDUs to form an RLC PDU; discarding , at the RLC entity, the PDCP PDU which was assigned the RLC header; and reassigning a sequence number for another RLC PDU subsequent to the RLC PDU formed from the discarded PDCP PDU.
A polishing composition comprising an abrasive, a water-soluble polymer, and water, wherein the polishing composition has a volume average particle diameter D A of grains in the polishing composition of 20 nm to 60 nm measured by dynamic light scattering at a concentration equivalent to 0.2 % abrasive content by mass, the abrasive contains a silica grain and has an average secondary particle diameter D P2 of 20 nm to 60 nm, and the polishing composition has a pH of 9.0 to 11.0.
A process for the production of a reinforced polyamide (rP) in an extruder, wherein the extruder comprises a reaction zone and a devolatilization zone, wherein the reaction zone comprises a first section, a second section, and a third section, comprising the steps: a) provision of a first mixture (M1) comprising component (A) at least one lactam, b) provision of a second mixture (M2) comprising component (B) at least one catalyst, c) provision of a third mixture (M3) comprising component (C) at least one activator, d) addition of the first mixture (M1), the second mixture (M2) and the third mixture (M3) into the first section of the reaction zone of the extruder to obtain a polymerizable mixture (pM) in the extruder, e) addition of at least one carbon material into the second section of the reaction zone of the extruder to the polymerizable mixture (pM) obtained in step d), to obtain a carbon containing polymerizable mixture (cpM) in the extruder, f) polymerization of the carbon containing polymerizable mixture (cpM) obtained in step e) in the third section of the reaction zone of the extruder to obtain a reinforced raw polyamide (rrP), g) devolatilization of the reinforced raw polyamide (rrP) obtained in step f) in the devolatilization zone of the extruder to obtain the reinforced polyamide (rP), wherein the devolatilization zone comprises pressure built-up zones and stress relief zones and wherein a stripping fluid is added into the pressure built-up zones of the devolatilization zone of the extruder. a) provision of a first mixture (M1) comprising component (A) at least one lactam, (A) at least one lactam, b) provision of a second mixture (M2) comprising component (B) at least one catalyst, c) provision of a third mixture (M3) comprising component (C) at least one activator, d) addition of the first mixture (M1), the second mixture (M2) and the third mixture (M3) into the first section of the reaction zone of the extruder to obtain a polymerizable mixture (pM) in the extruder, e) addition of at least one carbon material into the second section of the reaction zone of the extruder to the polymerizable mixture (pM) obtained in step d), to obtain a carbon containing polymerizable mixture (cpM) in the extruder, f) polymerization of the carbon containing polymerizable mixture (cpM) obtained in step e) in the third section of the reaction zone of the extruder to obtain a reinforced raw polyamide (rrP), g) devolatilization of the reinforced raw polyamide (rrP) obtained in step f) in the devolatilization zone of the extruder to obtain the reinforced polyamide (rP), wherein the devolatilization zone comprises pressure built-up zones and stress relief zones and wherein a stripping fluid is added into the pressure built-up zones of the devolatilization zone of the extruder.